mhurhangee/patent-ind-claim-en huggingface dataset:
A method of passivating facets of an edge-emitting laser diode comprising: a) depositing, in a reaction chamber, one or more passivation layers on bare facet surfaces of the edge-emitting laser diode to form a facet coating of a predetermined thickness; b) removing the edge-emitting laser diode from the reaction chamber; and c) irradiating the facet coating with an external laser energy source for a period of time sufficient to condition the facet coating by forming a crystalline structure through the predetermined thickness; wherein the one or more passivation layers consist of materials selected from the group consisting of: silicon, germanium, antimony, as well as oxides of silicon, germanium, antimony, and nitrides of germanium, antimony. a) depositing, in a reaction chamber, one or more passivation layers on bare facet surfaces of the edge-emitting laser diode to form a facet coating of a predetermined thickness; b) removing the edge-emitting laser diode from the reaction chamber; and c) irradiating the facet coating with an external laser energy source for a period of time sufficient to condition the facet coating by forming a crystalline structure through the predetermined thickness;
A method for managing a plurality of subscriptions with subscription authorization data on a security element of a mobile end device for logging into a respective mobile radio network , wherein the security element has a plurality of memory locations for storing the plurality of subscriptions (18a-d), wherein the plurality of subscriptions (18a-d) comprises a primary subscription and at least one secondary subscription (18b-d), wherein in the primary subscription there is deposited a set of rules which determines whether the at least one secondary subscription (18b-d) on the security element can be used, wherein alongside the primary subscription at least one further primary subscription on the security element can be used, and the plurality of subscriptions (18a-d) comprise at least two secondary subscriptions (18b-d), wherein the set of rules deposited in the primary subscription only holds for a portion of the at least two secondary subscriptions (18b-d), and in the further primary subscription there is deposited a set of rules which determines whether a secondary subscription of the other portion of the at least two secondary subscriptions (18b-d) on the security element can be used.
An impact device adapted to be mounted to an electric nail gun , the electric nail gun including a supporting frame , and a flywheel that is rotatably mounted to the supporting frame , said impact device comprising: a swing arm unit adapted to be connected to the supporting frame , and adapted to be pivotable relative to the supporting frame toward or away from the flywheel ; a track unit including a guiding track ; and an impact unit adapted to be disposed between the flywheel and said guiding track , movably connected to said guiding track , and being movable relative to said guiding track in a striking direction (Y1) and a return direction (Y2) that are opposite to each other; characterized in that the guiding track is movably connected to said swing arm unit ; and said guiding track is movable resiliently relative to said swing arm unit between a front position, where said impact unit is adapted to contact the flywheel such that rotation of the flywheel drives said impact unit to move in the striking direction (Y1), and a rear position, where said impact unit is adapted to be spaced apart from the flywheel such that movement of said impact unit in the return direction (Y2) is not affected by the flywheel . a swing arm unit adapted to be connected to the supporting frame , and adapted to be pivotable relative to the supporting frame toward or away from the flywheel ; a track unit including a guiding track ; and an impact unit adapted to be disposed between the flywheel and said guiding track , movably connected to said guiding track , and being movable relative to said guiding track in a striking direction (Y1) and a return direction (Y2) that are opposite to each other; characterized in that the guiding track is movably connected to said swing arm unit ; and said guiding track is movable resiliently relative to said swing arm unit between a front position, where said impact unit is adapted to contact the flywheel such that rotation of the flywheel drives said impact unit to move in the striking direction (Y1), and a rear position, where said impact unit is adapted to be spaced apart from the flywheel such that movement of said impact unit in the return direction (Y2) is not affected by the flywheel . a front position, where said impact unit is adapted to contact the flywheel such that rotation of the flywheel drives said impact unit to move in the striking direction (Y1), and a rear position, where said impact unit is adapted to be spaced apart from the flywheel such that movement of said impact unit in the return direction (Y2) is not affected by the flywheel .
An adhesive composition comprising: halogenated butyl rubber; polyisobutylene oligomers having a number average molecular weight ranging from 500 grams per mole to 30,000 grams per mole; and a multifunctional crosslinker; wherein the adhesive composition has a 1-kilogram stainless steel static shear greater than 100 minutes as measured by Static Shear PTSC-7, wherein the concentration of the polyisobutylene oligomers in the adhesive composition is greater than 50 wt%. halogenated butyl rubber; polyisobutylene oligomers having a number average molecular weight ranging from 500 grams per mole to 30,000 grams per mole; and a multifunctional crosslinker; wherein the adhesive composition has a 1-kilogram stainless steel static shear greater than 100 minutes as measured by Static Shear PTSC-7, wherein the concentration of the polyisobutylene oligomers in the adhesive composition is greater than 50 wt%.
A method for cleaning a metal filter which has a cylindrical shape, in which an opening is provided in one side thereof in an upper or lower end, and has a through-hole in a side surface thereof so that when a fluid containing foreign substances is introduced into the opening, the foreign substances are filtered by the through-hole, and only the fluid is discharged through the through-hole, the method comprising: a step of mounting the metal filter on a jig that is vertically elevatable and horizontally slidable in a cleaning bath so that the opening is faced downward; a step of allowing the jig to descend so that (a)nozzle(s) installed in the cleaning bath enters the opening; a step of injecting a predetermined amount of water and a cleaning solution into the cleaning bath so that the metal filter is immersed; a step of spraying compressed air through the nozzle to discharge bubbles toward an inner surface of the metal filter when the metal filter is immersed; a step of draining the cleaning bath when the step of spraying the bubbles is completed; a step of spraying water through the nozzle to remove the cleaning solution; and a step of spraying the compressed air through the nozzle to dry the metal filter . a step of mounting the metal filter on a jig that is vertically elevatable and horizontally slidable in a cleaning bath so that the opening is faced downward; a step of allowing the jig to descend so that (a)nozzle(s) installed in the cleaning bath enters the opening; a step of injecting a predetermined amount of water and a cleaning solution into the cleaning bath so that the metal filter is immersed; a step of spraying compressed air through the nozzle to discharge bubbles toward an inner surface of the metal filter when the metal filter is immersed; a step of draining the cleaning bath when the step of spraying the bubbles is completed; a step of spraying water through the nozzle to remove the cleaning solution; and a step of spraying the compressed air through the nozzle to dry the metal filter .
An instrument comprising a shank and a working portion , the working portion having a tip and a plurality of flutes being defined by at least two lands , the lands having a land margin , a leading edge region and a trailing edge region ; wherein the working portion has a parabolic cross-section defining opposing convexed surfaces extending between at least two opposing land margins, wherein each of the flutes has a flute leading side wall , a flute trailing side wall , and a flute base located between, the flute trailing side wall and the flute leading side wall extend between the flute base , and the flute trailing edge region and the flute leading edge region , respectively of the opposed land margin in a straight or arcuate manner such that the overall wall, i.e. the flute trailing side wall and the flute leading side wall extending between the trailing edge region , the base and the flute leading edge portion defines a convex cross-section, characterized in that the flute bases extend to and define a core , the core 13 extending along a central axis A, and the land margins each lie on a circle B extending about the central axis A and having a diameter equal to diameter of the shank .
A recombinant Von Willebrand Factor (rVWF) for use in a method for pre-treatment of a subject with severe von Willebrand disease (VWD) prior to a surgical procedure, wherein said pre-treatment comprises administering 20-60 lU/kg of the rVWF to said subject between 12 hours and 24 hours prior to the surgical procedure and wherein Factor VIII (FVIII) is not administered with the VWF prior to the surgical procedure.
A method of operating an acetic acid production system, comprising: flashing a reaction mixture discharged from an acetic acid production reactor into a vapor stream and a liquid stream, the vapor stream comprising acetic acid, water, methanol, methyl acetate, methyl iodide, and acetaldehyde; distilling the vapor stream into: a product side stream comprising acetic acid and water; a bottoms stream; and an overhead stream comprising methyl iodide, water, methyl acetate, acetic acid, and acetaldehyde; condensing the overhead stream into: a light, aqueous phase comprising water, acetic acid, and methyl acetate; and a heavy, organic phase comprising methyl iodide, acetic acid, water, and the acetaldehyde; and converting the acetaldehyde in at least a portion of the heavy, organic phase to an oligomer, wherein converting comprising contacting the at least a portion of the heavy, organic phase with methanesulfonic acid (MSA) as a catalyst to convert the acetaldehyde to the oligomer. flashing a reaction mixture discharged from an acetic acid production reactor into a vapor stream and a liquid stream, the vapor stream comprising acetic acid, water, methanol, methyl acetate, methyl iodide, and acetaldehyde; distilling the vapor stream into: a product side stream comprising acetic acid and water; a bottoms stream; and an overhead stream comprising methyl iodide, water, methyl acetate, acetic acid, and acetaldehyde; condensing the overhead stream into: a light, aqueous phase comprising water, acetic acid, and methyl acetate; and a heavy, organic phase comprising methyl iodide, acetic acid, water, and the acetaldehyde; and converting the acetaldehyde in at least a portion of the heavy, organic phase to an oligomer, wherein converting comprising contacting the at least a portion of the heavy, organic phase with methanesulfonic acid (MSA) as a catalyst to convert the acetaldehyde to the oligomer.
A method of wireless communication at a wireless communication device in a 3GPP communication system operable according to a first radio access technology, RAT, and a second RAT, wherein transmissions based on the first RAT take place in several transmission time intervals, TTI, wherein each TTI is a subframe, a slot of a subframe, or a symbol period of a subframe, and wherein each TTI includes a downlink transmission time interval as well as a default feedback transmission time interval configured for acknowledging the data received in the downlink transmission time interval, the method comprising: receiving a first transmission according to the first RAT, during a first TTI; determining that the transmitter of the wireless communication device is tuned to a second RAT during the default feedback transmission time interval within the first TTI for the first transmission; receiving a further transmission according to the first RAT, during a further TTI; and transmitting combined feedback for the first transmission and the further transmission at the later default feedback transmission time interval for the further transmission received during the further TTI. receiving a first transmission according to the first RAT, during a first TTI; determining that the transmitter of the wireless communication device is tuned to a second RAT during the default feedback transmission time interval within the first TTI for the first transmission; receiving a further transmission according to the first RAT, during a further TTI; and transmitting combined feedback for the first transmission and the further transmission at the later default feedback transmission time interval for the further transmission received during the further TTI.
A vacuum integrated electronic device (120; 150; 155; 160) comprising: an anode region of conductive material; an insulating region (102, 104; 157) on top of the anode region; a cavity extending through the insulating region and having a sidewall ; and a cathode region having a tip portion (51, 52; 122) extending peripherally within the cavity, adjacent to and on the sidewall of the cavity, the tip portion terminating with at least one tip end extending in the cavity, adjacent to and on the sidewall of the cavity, characterized in that the cathode region is a metal layer comprising a closing portion integral to the tip portion (51, 52; 122), the closing portion extending on top of the insulating region and closing the cavity , the tip portion (51, 52; 122) extending from the closing portion. an anode region of conductive material; an insulating region (102, 104; 157) on top of the anode region; a cavity extending through the insulating region and having a sidewall ; and a cathode region having a tip portion (51, 52; 122) extending peripherally within the cavity, adjacent to and on the sidewall of the cavity, the tip portion terminating with at least one tip end extending in the cavity, adjacent to and on the sidewall of the cavity, characterized in that the cathode region is a metal layer comprising a closing portion integral to the tip portion (51, 52; 122), the closing portion extending on top of the insulating region and closing the cavity , the tip portion (51, 52; 122) extending from the closing portion.
A multi layered protection system comprising: a plurality of box-shaped structural elements , and at least one layer of protective wall, wherein said box-shaped structural elements are connected to one another along adjacent faces so as to form a modular protection structure, each box-shaped structural element having a frame made of beams , wherein the frame is bounded by a floor at a lower side , a roof at an upper side and four sides, wherein each side that is not adjacent to a side of another at least one element is covered by a wall ; and said at least one layer of protective wall is configured to be mounted on each of the walls and/or the roof , respectively, to enable quick and easy erection and disassembly of the multi layered protection system ; wherein said at least one layer of protective wall is a protective panel that covers at least one of the walls or the roof , characterized in that side beams of the beams are provided with oppositely directed vertical rails configured to receive the protective panel in a downward direction, and the pair of rails configured to receive a protective panel are converging in a downward direction. a plurality of box-shaped structural elements , and at least one layer of protective wall, wherein said box-shaped structural elements are connected to one another along adjacent faces so as to form a modular protection structure, each box-shaped structural element having a frame made of beams , wherein the frame is bounded by a floor at a lower side , a roof at an upper side and four sides, wherein each side that is not adjacent to a side of another at least one element is covered by a wall ; and said at least one layer of protective wall is configured to be mounted on each of the walls and/or the roof , respectively, to enable quick and easy erection and disassembly of the multi layered protection system ; wherein said at least one layer of protective wall is a protective panel that covers at least one of the walls or the roof , characterized in that side beams of the beams are provided with oppositely directed vertical rails configured to receive the protective panel in a downward direction, and the pair of rails configured to receive a protective panel are converging in a downward direction.
A circuit comprising: a transistor , a switch and a signal source , a base (B) of the transistor being switchably connectable to the signal source through the switch ; a first diode connected between the base of the transistor and a reference voltage, wherein the first diode is configured such that when the signal source is not connected to the base of the transistor , a voltage applied at an emitter of the transistor causes a current flow through the base of the transistor and through the first diode sufficient that the transistor is in an ON state; the impedance of the signal source is lower than the impedance of the transistor through the emitter and base; the first diode is additionally selected to provide a current limiting function such that when the signal source is connected to the base of the transistor , current flow through the base reduces such that the transistor switches to an OFF state; and in which the circuit further comprises a second diode , the second diode comprised from a semiconductor region that provides the base of the transistor and a further semiconductor region in direct contact with the semiconductor region that provides the base of the transistor; and in which the signal source is connectable to the base of the transistor through the second diode . a transistor , a switch and a signal source , a base (B) of the transistor being switchably connectable to the signal source through the switch ; a first diode connected between the base of the transistor and a reference voltage, wherein the first diode is configured such that when the signal source is not connected to the base of the transistor , a voltage applied at an emitter of the transistor causes a current flow through the base of the transistor and through the first diode sufficient that the transistor is in an ON state; the impedance of the signal source is lower than the impedance of the transistor through the emitter and base; the first diode is additionally selected to provide a current limiting function such that when the signal source is connected to the base of the transistor , current flow through the base reduces such that the transistor switches to an OFF state; and in which the circuit further comprises a second diode , the second diode comprised from a semiconductor region that provides the base of the transistor and a further semiconductor region in direct contact with the semiconductor region that provides the base of the transistor; and in which the signal source is connectable to the base of the transistor through the second diode .
A method of preparing a navigation autonomy map for a autonomous vehicle equipped with at least two sensors each providing a distinct navigation autonomy function, covering a zone including path segments, the method comprising the following steps: identifying the path segments for which the map needs to be prepared; for each path segment, calculating primary autonomy indices for each of navigation autonomy function; and calculating for each path segment a final autonomy index on the basis of the primary autonomy indices, characterized in that the final autonomy index is calculated by taking a weighted average of the primary autonomy indices according to a relative importance of each primary autonomy index for the navigation autonomy of the vehicle.
Brush head for a toothbrush, in particular an electric toothbrush, which is provided with bristles comprising tapered filaments and conventional, cylindrical and rounded filaments , wherein the tapered filaments are longer than the conventional, cylindrical and rounded filaments, characterized in that the ends of the tapered filaments are at two different levels (E1, E2).
An ultrasonic imaging apparatus comprising: an ultrasonic measurement section that includes an ultrasonic probe and configured to measure an echo signal from a region containing a desired organ ; and a signal processing section configured to perform computation by using the echo signal, the ultrasonic imaging apparatus characterized in that the signal processing section includes a speed calculating section configured to calculate speeds of at least two locations on the organ by using the echo signal, a vibration mode identifying section configured to analyze the speeds of the two locations to identify a plurality of vibration modes of the organ and a vibration frequency in each of the vibration modes, and a hardness calculating section configured to calculate hardness of the organ by using the vibration modes and the vibration frequencies identified by the vibration mode identifying section, a constant determined in -advance in relation to the organ, and information on a size of the organ , wherein the organ is a kidney, and the two locations are located on a side shifted from a center of a longitudinal length of the kidney toward one end thereof and at different ultrasonic depths. an ultrasonic measurement section that includes an ultrasonic probe and configured to measure an echo signal from a region containing a desired organ ; and a signal processing section configured to perform computation by using the echo signal, the ultrasonic imaging apparatus characterized in that the signal processing section includes a speed calculating section configured to calculate speeds of at least two locations on the organ by using the echo signal, a vibration mode identifying section configured to analyze the speeds of the two locations to identify a plurality of vibration modes of the organ and a vibration frequency in each of the vibration modes, and a hardness calculating section configured to calculate hardness of the organ by using the vibration modes and the vibration frequencies identified by the vibration mode identifying section, a constant determined in -advance in relation to the organ, and information on a size of the organ , wherein the organ is a kidney, and the two locations are located on a side shifted from a center of a longitudinal length of the kidney toward one end thereof and at different ultrasonic depths.