mhurhangee/ep-ind-claims huggingface dataset:
An eyewear frame comprising: - a central portion configured to receive at least one optical lens (14a, 14 b), - a first temple having a first embedded electronic device and a first battery, - a second temple having a second embedded electronic device and a second battery, the first temple is pivotably fixed to a first end of the central portion and the second temple is pivotably fixed to a second end of the central portion, wherein the first electronic and the second electronic devices (18a, 18b) are configured to communicate in a wireless manner when the temples (16a, 16b) are in an opened position, the first and second electronic devices (18a, 18b) comprise each a close-range communication system (24a, 24b) configured to synchronize the first and the second electronic devices (18a, 18b) when the temples (16a,16b) are spaced at most a few millimetres apart, and wherein the eyewear frame comprises a communication activation device configured to activate the close-range communication systems (24a, 24b). - a central portion configured to receive at least one optical lens (14a, 14 b), - a first temple having a first embedded electronic device and a first battery, - a second temple having a second embedded electronic device and a second battery, the first temple is pivotably fixed to a first end of the central portion and the second temple is pivotably fixed to a second end of the central portion, wherein the first electronic and the second electronic devices (18a, 18b) are configured to communicate in a wireless manner when the temples (16a, 16b) are in an opened position, the first and second electronic devices (18a, 18b) comprise each a close-range communication system (24a, 24b) configured to synchronize the first and the second electronic devices (18a, 18b) when the temples (16a,16b) are spaced at most a few millimetres apart, and wherein the eyewear frame comprises a communication activation device configured to activate the close-range communication systems (24a, 24b).
A photoluminescence quenching device induced by electric field comprising a first electrode negatively biased called cathode, a second electrode positively biased called anode and a third electrode (201, 202, and 203) and an active layer in between the first and the second electrode, characterized in that the third electrode is isolated from the active layer by an insulating layer, and the active layer comprises at least one organic phosphorescent emitter compound and organic charge transporting host compound(s) being only hole transport host compound(s) wherein the cathode is selected from conducting materials, whose electron affinity is lower than the HOMO of the hole transport host compound(s) and wherein the HOMO of the hole transport host compound(s) is higher than that of the phosphorescent emitter compound.
A fluid drainage device (10, 10A) for use in applying a negative pressure to a wound site, the fluid drainage device (10, 10A) including a body with an outer surface, a cylindrical bore, formed in the body, which defines at least part of a fluid-receiving volume, structure, at least partly on the outer surface of the body, which forms an inlet to and an outlet from the fluid-receiving volume, a cover which includes an inlet port and an outlet port, wherein the cover is movable relative to the body between a first limiting position at which the inlet port is in fluid communication with the inlet and hence with the fluid-receiving volume and fluid flow through the outlet is prevented, and a second limiting position at which the outlet port is in fluid communication with the outlet and hence the fluid-receiving volume and fluid flow through the inlet is prevented, a piston which is in sealing contact with the bore and which partly bounds the fluid-receiving volume, the piston being movable inside the bore between a first position and a second position, a piston rod which extends from the piston, an energy storage device engaged with the piston rod, a user-actuated handle mechanism which is moveable relative to the body in a first direction to cause the piston to move to the first position and to store energy in the energy storage device so that, when the cover is in the first limiting position and the user-actuated handle mechanism is moved relative to the body in a second direction opposite the first direction, the piston is moveable by the action of energy released from the energy storage device away from the first position towards the second position thereby causing a reduction in pressure in the fluid-receiving volume and allowing fluid flow, in use of the device (10, 10A), to the fluid-receiving volume through the inlet port and, with the piston in the second position and with the cover in the second limiting position, movement of the user-actuable handle mechanism relative to the body in the first direction causes the piston to be moved towards the first position thereby expelling fluid from the fluid-receiving volume through the outlet port characterized the structure includes respective openings in the outer surface of the body to provide the inlet to, and the outlet from, the fluid receiving volume.
Disposable flexible membrane suitable for adhesion to an objective lens, especially an objective of a camera for laparoscopic operations, the membrane being transparent and comprising two opposite faces, a first face comprising a hydrophobic surface, and a second face comprising a surface of reversible adhesiveness, characterized by the hydrophobic surface comprising particles whose sizes range from 1 nanometre to 20 micrometres and whose surface is hydrophobic, and in that the particles comprise cellulose nanofibres.
Non-therapeutic cosmetic use of an extract of the aerial parts of Epilobium angustifolium for reducing the visibility of the pores of the skin and/or preventing the increase in the visibility of the pores of the skin, characterized in that the extract is obtained in water as sole solvent.
A method for heat treatment of a crankshaft of a ferrous material, comprising the step of heating at least one selected portion of the crankshaft by: projecting a laser beam onto a surface of the crankshaft so as to produce a primary spot on the surface of the crankshaft, operating a scanner so as to repetitively scan the beam to displace the primary spot in accordance with a first scanning pattern so as to establish an effective spot on the surface of the crankshaft, said effective spot having a two-dimensional energy distribution, and displacing said effective spot in relation to the surface of the crankshaft to progressively heat the at least one selected portion of the crankshaft; wherein the beam follows an optical path between the scanner and the primary spot, characterized in that a beam deflector device (3, 3A) is placed in the optical path to redirect the beam onto the surface of the crankshaft, and in that the beam deflector device is placed so that when the method is carried out, at least at some moments the beam deflector device is placed between two walls or counterweights of the crankshaft. projecting a laser beam onto a surface of the crankshaft so as to produce a primary spot on the surface of the crankshaft, operating a scanner so as to repetitively scan the beam to displace the primary spot in accordance with a first scanning pattern so as to establish an effective spot on the surface of the crankshaft, said effective spot having a two-dimensional energy distribution, and displacing said effective spot in relation to the surface of the crankshaft to progressively heat the at least one selected portion of the crankshaft; wherein the beam follows an optical path between the scanner and the primary spot, characterized in that a beam deflector device (3, 3A) is placed in the optical path to redirect the beam onto the surface of the crankshaft, and in that the beam deflector device is placed so that when the method is carried out, at least at some moments the beam deflector device is placed between two walls or counterweights of the crankshaft.
Installation for illuminating an environment, comprising: a multiplicity of illumination devices which are distributed in the environment and approachable via a route network, wherein each illumination device has a light, a wind and/or solar module (9', 9") for respective generation of wind or solar electricity feeding the light, a buffer battery for respectively buffering the wind or solar electricity, and a charging input for charging the buffer battery, characterised in that the installation further comprises: a common charging station for the illumination devices, which is approachable via the route network and has a charging output for outputting charging electricity, and a robot which travels self-sufficiently on the route network, has an accumulator and shuttles between a first position, in which it connects to the charging output of the charging station and buffers the charging electricity thereof in the accumulator, and multiple second positions, in each of which it connects to the charging input of an illumination device and charges the buffer battery thereof from the accumulator. a multiplicity of illumination devices which are distributed in the environment and approachable via a route network, wherein each illumination device has a light, a wind and/or solar module (9', 9") for respective generation of wind or solar electricity feeding the light, a buffer battery for respectively buffering the wind or solar electricity, and a charging input for charging the buffer battery, characterised in that the installation further comprises: a common charging station for the illumination devices, which is approachable via the route network and has a charging output for outputting charging electricity, and a robot which travels self-sufficiently on the route network, has an accumulator and shuttles between a first position, in which it connects to the charging output of the charging station and buffers the charging electricity thereof in the accumulator, and multiple second positions, in each of which it connects to the charging input of an illumination device and charges the buffer battery thereof from the accumulator. a common charging station for the illumination devices, which is approachable via the route network and has a charging output for outputting charging electricity, and a robot which travels self-sufficiently on the route network, has an accumulator and shuttles between a first position, in which it connects to the charging output of the charging station and buffers the charging electricity thereof in the accumulator, and multiple second positions, in each of which it connects to the charging input of an illumination device and charges the buffer battery thereof from the accumulator.
A drug-eluting stent having a net-like main body which is made of a metal or a polymeric material, the surface of which is coated with a mixture comprising cilostazol and a bioabsorbable polymer, wherein the bioabsorbable polymer comprises a polymer comprising L lactide and DL lactide in a weight ratio of 6: 4 - 8: 2, whose molecular weight is 300,000 - 600,000.
A guide tack for guiding a cannula through an incision in the eye, wherein the cannula has a generally rectangular or elliptical cross section, comprising: (a) a body, wherein the body includes an engagement feature configured to engage a deployment instrument; and (b) a pair of rigid legs extending from the body, wherein the legs are parallel with each other, wherein each leg has a sharp tip, wherein the legs both extend along a plane; wherein the body has inner walls defining a guide opening, wherein the guide opening is oriented transversely relative to the plane associated with the legs, wherein the guide opening is sized to receive the cannula having the generally rectangular or elliptical cross section such that the cannula can be maintained in a substantially tangential orientation relative to the incision. (a) a body, wherein the body includes an engagement feature configured to engage a deployment instrument; and (b) a pair of rigid legs extending from the body, wherein the legs are parallel with each other, wherein each leg has a sharp tip, wherein the legs both extend along a plane;
A transformation substation, transforming electrical energy from a medium voltage to a low voltage, connected in series in an electrical medium voltage three phase distribution line between three-phase input terminals (20, 20') and three-phase output terminals (20', 20) of said distribution line, said transformation substation comprising: at least one distribution transformer comprising three-phase medium voltage terminals for transforming electrical energy from a medium voltage to a low voltage; at least one low voltage distribution panel for distributing said transformed electrical energy; a medium voltage switchgear connected electrically to said three-phase medium voltage terminals. of said at least one distribution transformer and to said three-phase input terminals (20, 20') and said three-phase output terminals (20', 20) of said medium voltage distribution line, for supplying electrical energy and protection to said at least one distribution transformer, characterized in that said transformation substation further comprises a medium voltage breaker electrically connected in parallel across the terminals of at least part of said medium voltage switchgear, and said breaker is also electrically connected in series with said medium voltage electrical distribution line between said three-phase input terminals (20, 20') and said three-phase output terminals (20', 20) of said distribution line, wherein said medium voltage breaker is interlocked with said medium voltage switchgear manually and/or electrically and/or automatically. at least one distribution transformer comprising three-phase medium voltage terminals for transforming electrical energy from a medium voltage to a low voltage; at least one low voltage distribution panel for distributing said transformed electrical energy; a medium voltage switchgear connected electrically to said three-phase medium voltage terminals. of said at least one distribution transformer and to said three-phase input terminals (20, 20') and said three-phase output terminals (20', 20) of said medium voltage distribution line, for supplying electrical energy and protection to said at least one distribution transformer, characterized in that said transformation substation further comprises a medium voltage breaker electrically connected in parallel across the terminals of at least part of said medium voltage switchgear, and said breaker is also electrically connected in series with said medium voltage electrical distribution line between said three-phase input terminals (20, 20') and said three-phase output terminals (20', 20) of said distribution line, wherein said medium voltage breaker is interlocked with said medium voltage switchgear manually and/or electrically and/or automatically.
A monitoring sensor for a sealed secondary battery including a sealed outer casing and an electrode group accommodated in an inside of the sealed outer casing, comprising: - a polymer matrix layer that is disposed in the inside of the outer casing; and - a detection unit that is disposed on an outside of the outer casing, wherein the polymer matrix layer contains a magnetic filler that is dispersed therein and that is adapted to change an external field in accordance with deformation of the polymer matrix layer, and wherein the detection unit is adapted to detect a change in a magnetic field as the external field. - a polymer matrix layer that is disposed in the inside of the outer casing; and - a detection unit that is disposed on an outside of the outer casing, wherein the polymer matrix layer contains a magnetic filler that is dispersed therein and that is adapted to change an external field in accordance with deformation of the polymer matrix layer, and wherein the detection unit is adapted to detect a change in a
A mixed reality presentation system comprising: a headwear to present virtual images to a person wearing the headwear; a stationary main unit comprising sensors to sense a surrounding physical environment and position and orientation of the headwear; a virtual image generator to generate the virtual images based on the sensed surrounding physical environment and the sensed headwear position and orientation; and a transmitter to transmit the generated virtual images to the headwear for presentation. a headwear to present virtual images to a person wearing the headwear; a stationary main unit comprising sensors to sense a surrounding physical environment and position and orientation of the headwear; a virtual image generator to generate the virtual images based on the sensed surrounding physical environment and the sensed headwear position and orientation; and a transmitter to transmit the generated virtual images to the headwear for presentation. sensors to sense a surrounding physical environment and position and orientation of the headwear; a virtual image generator to generate the virtual images based on the sensed surrounding physical environment and the sensed headwear position and orientation; and a transmitter to transmit the generated virtual images to the headwear for presentation.
A wireless device configured to determine a Random Access-Radio Network Temporary Identifier, RA-RNTI, for use in a radio network system, characterized in that the wireless device comprising: a first counter configured to be incremented after a pre-defined period of time and to be re-set when having reached a predefined first number, wherein the first counter counts a first count; a second counter configured to be incremented when the first counter reaches the predefined first number and to be re-set when having reached a predefined second number, wherein the second counter counts a second count; and a third counter configured to be incremented when the second counter reaches the predefined second number and to be re-set when having reached a predefined third number, wherein the third counter counts a third count; and wherein the wireless device is configured to determine an RA-RNTI based on a mathematical formula that includes both the second count and the third count, wherein the mathematical formula is RA − RNTI = 1 + floor b + c + 1 * mod d e / z + f, wherein b is the second count; c is the second predefined number; d is the third count; e is an integer including 1; z is an integer including 1; and f is an integer including 0, 1 or a number > 1. a first counter configured to be incremented after a pre-defined period of time and to be re-set when having reached a predefined first number, wherein the first counter counts a first count; a second counter configured to be incremented when the first counter reaches the predefined first number and to be re-set when having reached a predefined second number, wherein the second counter counts a second count; and a third counter configured to be incremented when the second counter reaches the predefined second number and to be re-set when having reached a predefined third number, wherein the third counter counts a third count; and wherein the wireless device is configured to determine an RA-RNTI based on a mathematical formula that includes both the second count and the third count, b is the second count; c is the second predefined number; d is the third count; e is an integer including 1; z is an integer including 1; and f is an integer including 0, 1 or a number > 1.
A material testing system, comprising: a rotatable actuator configured to control an operator-accessible torsional testing component of the material testing system; a virtual interlock configured to engage or disengage with the actuator to prevent or allow rotational movement of the actuator; a brake to prevent rotational movement of the rotatable actuator; and a control circuitry configured to: control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response. a rotatable actuator configured to control an operator-accessible torsional testing component of the material testing system; a virtual interlock configured to engage or disengage with the actuator to prevent or allow rotational movement of the actuator; a brake to prevent rotational movement of the rotatable actuator; and a control circuitry configured to: control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response. control the actuator to perform a material testing process; monitor a plurality of inputs associated with operation of the material testing system; identify an operational state of the material testing system from a plurality of predetermined operational states based on the plurality of inputs and the material testing process, the plurality of predetermined operational states comprising one or more of a disabled state, a setup state, a caution state, or a testing state; and control the virtual interlock based on the identified state wherein the control circuitry is further configured to identify activation of a non-rotational testing process and engage the brake to lock the actuator from rotational movement in response.
A strap restraint for an adjustable device having a strap with an end that doubles back through a length-adjustment mechanism and over the strap, the strap restraint comprising: a pair of flexible elements (401, 405) attached to the end, where the element of the pair of elements (401,405) is inelastic, is of sufficient size to wrap about the strap, and is fastenable to the other element of the pair of elements (401, 405), such that the force with which the strap restraint holds the end against the strap is adjustable by fastening the pair of flexible elements (401, 405) about the strap, the strap restraint being characterised in that it further comprises an elastic band attached to the end, wherein the band is configured to encircle the strap and surround the pair of flexible elements (401, 405). a pair of flexible elements (401, 405) attached to the end, where the element of the pair of elements (401,405) is inelastic, is of sufficient size to wrap about the strap, and is fastenable to the other element of the pair of elements (401, 405), such that the force with which the strap restraint holds the end against the strap is adjustable by fastening the pair of flexible elements (401, 405) about the strap, the strap restraint being characterised in that it further comprises an elastic band attached to the end, wherein the band is configured to encircle the strap and surround the pair of flexible elements (401, 405).