mhurhangee/ep-ind-claims huggingface dataset:
An optoelectronic component for mixing electromagnetic radiation having different wavelengths, in the far field, comprising: - a carrier, - at least one first semiconductor chip arranged on the carrier and having a first radiation exit surface for emitting electromagnetic radiation in a first spectral range, wherein the first semiconductor chip is embodied as an AlGaInP semiconductor chip that emits electromagnetic radiation in the red and/or yellow spectral range; - at least one second semiconductor chip arranged on the carrier and having a second radiation exit surface for emitting electromagnetic radiation in a second spectral range, wherein the second semiconductor chip is embodied as an InGaN semiconductor chip that emits electromagnetic radiation in the blue spectral range, - wherein a diffusing layer is provided on the radiation exit surfaces (13, 17) of the semiconductor chips (3, 4) which face away from the carrier, and - wherein a conversion layer is provided continuously between the radiation exit surfaces (13, 17) of the semiconductor chips (3, 4) which face away from the carrier and the diffusing layer, characterized in that a clear potting material in the form of a "lens on chip" is arranged in the conversion layer on the radiation exit surface of the first semiconductor chip only. - a carrier, - at least one first semiconductor chip arranged on the carrier and having a first radiation exit surface for emitting electromagnetic radiation in a first spectral range, wherein the first semiconductor chip is embodied as an AlGaInP semiconductor chip that emits electromagnetic radiation in the red and/or yellow spectral range; - at least one second semiconductor chip arranged on the carrier and having a second radiation exit surface for emitting electromagnetic radiation in a second spectral range, wherein the second semiconductor chip is embodied as an InGaN semiconductor chip that emits electromagnetic radiation in the blue spectral range, - wherein a diffusing layer is provided on the radiation exit surfaces (13, 17) of the semiconductor chips (3, 4) which face away from the carrier, and - wherein a conversion layer is provided continuously between the radiation exit surfaces (13, 17) of the semiconductor chips (3, 4) which face away from the carrier and the diffusing layer,
A method for connecting sheet metal parts to form lamination stacks in which sheet metal parts are stamped out of an electrical steel strip by means of at least one stamping stage, which has a die and a cutting edge that cooperates with the die, and the stamped-out sheet metal parts are stacked and at least integrally joined to form a plurality of lamination stacks; at least between a first sheet metal part of the stacked sheet metal parts and the subsequent second sheet metal part of the stacked sheet metal parts, a separating element is provided in order to facilitate the separation of the integrally joined sheet metal parts in lamination stacks, characterized in that after the first sheet metal part is stamped out and before the second sheet metal part is stamped out, the separating element - which, in accordance with the die geometry, is smaller or of the same size - is conveyed to the die, is inserted into said die, and is thus provided to the first sheet metal part.
A sports shooting target made of a biodegradable material, the target having a rotational axis (z) and attachment means (2, 4', 4", 10, 11, 15) configured for releasable attachment of the target to a launching head of a launching device, where the target is provided with trajectory stabilizing means that are configured to stabilize the trajectory of the target by gyro effect caused by rotation about said rotational axis (z) which stabilizing means further function as propelling means that cause forward movement of the target along its trajectory due to the rotation about said rotational axis (z), when the target is rotating, where said stabilizing means comprises a fan comprising fan blades (3', 3") that rotates in unison with the target, when the target rotates, such that the stabilizing means both provides said stabilizing gyro effect and forward propulsion (movement) of the target along a chosen trajectory; where: - the sports shooting target comprises a hub portion (2, 15) configured for releasable attachment to a corresponding portion of a launching head of a launching device, which portion of the launching head, when the target is attached to it, can rotate said target and release it from the launching device, when a desired terminal rotational speed has been reached; and - the hub portion (2, 15) is provided with an inner circumferential surface (4', 10, 11) facilitating release of the target from said portion of the launching head and defining an inner space; characterized in that - the target comprises a plurality of concentric ring members (5, 6, 7; 12, 13, 14) arranged about the rotational axis (z) of the target at different distances (r 5, r 6, r 7) from the rotational axis (z) and outside the hub portion; and in that - the stabilizing means comprises first fan blades that extend radially from the hub portion (2, 15) to the ring member (7, 14) provided at the largest distance from the rotational axis (z) and second fan blades (3") that extend radially between two adjacent ring members. - the sports shooting target comprises a hub portion (2, 15) configured for releasable attachment to a corresponding portion of a launching head of a launching device, which portion of the launching head, when the target is attached to it, can rotate said target and release it from the launching device, when a desired terminal rotational speed has been reached; and - the hub portion (2, 15) is provided with an inner circumferential surface (4', 10, 11) facilitating release of the target from said portion of the launching head and defining an inner space; characterized in that - the target comprises a plurality of concentric ring members (5, 6, 7; 12, 13, 14) arranged about the rotational axis (z) of the target at different distances (r 5, r 6, r 7) from the rotational axis (z) and outside the hub portion; and in that - the stabilizing means comprises first fan blades that extend radially from the hub portion (2, 15) to the ring member (7, 14) provided at the largest distance from the rotational axis (z) and second fan blades (3") that extend radially between two adjacent ring members.
A method of a first radio device initially in non-network assisted device-to-device, D2D, communication with a second radio device using a first frequency resource and a first communication protocol, the method being characterised by comprising: while operating in non-network assisted D2D communication with the second radio device using the first frequency resource and the first communication protocol, determining that the first radio device is within coverage of a cellular network; connecting to the cellular network; sending a coverage message to the second radio device, informing said second radio device that the first radio device is within coverage of the cellular network; receiving a handover message from the cellular network comprising information about a second frequency resource and a second communication protocol; and initiating a handover of the D2D communication from the first frequency resource and the first communication protocol to the second frequency resource and the second communication protocol, thereby enabling D2D communication between the first radio device and the second radio device to continue but switch operation to network assisted D2D communication with assistance of the cellular network using the second frequency resource and the second communication protocol. while operating in non-network assisted D2D communication with the second radio device using the first frequency resource and the first communication protocol, determining that the first radio device is within coverage of a cellular network; connecting to the cellular network; sending a coverage message to the second radio device, informing said second radio device that the first radio device is within coverage of the cellular network; receiving a handover message from the cellular network comprising information about a second frequency resource and a second communication protocol; and initiating a handover of the D2D communication from the first frequency resource and the first communication protocol to the second frequency resource and the second communication protocol, thereby enabling D2D communication between the first radio device and the second radio device to continue but switch operation to network assisted D2D communication with assistance of the cellular network using the second frequency resource and the second communication protocol.
An image forming apparatus comprising: an apparatus main body including an image forming device that forms an image on a recording material; a unit detachably mounted in the apparatus main body; a switching member pivotably provided in the apparatus main body, wherein while in a state in which the switching member has entered into the unit mounted in the apparatus main body, the switching member selectively switches a route through which the recoding material is guided; and a retracting member provided in the apparatus main body, wherein the retracting member is adapted to retract the switching member to an outside of a mount area of the unit when the unit is dismounted from the apparatus main body, characterized in that the retracting member is provided so that the retracting member can be abutted against or separated from the switching member, the retracting member being biased to a direction that retracts the switching member to the outside of the mount area of the unit, and wherein the retracting member is adapted to abut against the unit and, countering biasing force, to separate from the switching member when the unit is mounted in the apparatus main body. an apparatus main body including an image forming device that forms an image on a recording material; a unit detachably mounted in the apparatus main body; a switching member pivotably provided in the apparatus main body, wherein while in a state in which the switching member has entered into the unit mounted in the apparatus main body, the switching member selectively switches a route through which the recoding material is guided; and a retracting member provided in the apparatus main body, wherein the retracting member is adapted to retract the switching member to an outside of a mount area of the unit when the unit is dismounted from the apparatus main body, characterized in that the retracting member is provided so that the retracting member can be abutted against or separated from the switching member, the retracting member being biased to a direction that retracts the switching member to the outside of the mount area of the unit, and wherein the retracting member is adapted to abut against the unit and, countering biasing force, to separate from the switching member when the unit is mounted in the apparatus main body.
A method for making composite active particles for use in a pharmaceutical composition for pulmonary administration, the method comprising a milling step in which particles of active material are milled in the presence of particles of an additive material which is suitable for the promotion of the dispersal of the composite active particles upon actuation of an inhaler, wherein the composite active particles have, smeared over or fused on their surfaces an amount of additive material in the form of particles adhering to the surfaces of the particles of active material, wherein after the milling step the mass median aerodynamic diameter of the composite active particle is not more than 10 μm as determined using a multi stage liquid impinger, and wherein the additive material comprises magnesium stearate.
A method for applying a double-sided pressure-sensitive adhesive tape, comprising: attaching a double-sided pressure-sensitive adhesive tape bent in the width direction to an adherend having a bend and/or curve so as to fit the bend or curve in the adherend, wherein the double-sided pressure-sensitive adhesive tape has: a pressure-sensitive adhesive body; and a release liner arranged on at least one side of the pressure-sensitive adhesive body, wherein the release liner includes a notch and/or slit in at least one edge in a width direction of the release liner, and the release liner is held on one of the sides of the pressure-sensitive adhesive body opposing the adherend, and wherein the release liner is an olefinic release liner. attaching a double-sided pressure-sensitive adhesive tape bent in the width direction to an adherend having a bend and/or curve so as to fit the bend or curve in the adherend, wherein the double-sided pressure-sensitive adhesive tape has: a pressure-sensitive adhesive body; and a release liner arranged on at least one side of the pressure-sensitive adhesive body, a pressure-sensitive adhesive body; and a release liner arranged on at least one side of the pressure-sensitive adhesive body,
A door comprising a door handle assembly comprising a door panel having an outer surface and an inner surface, an aperture being provided in the door panel and a cover plate being arranged to close the aperture and actuable to retract inwardly; wherein a latch release handle is provided on the inner surface of the door panel; characterised in that the cover plate is arranged to slide inwardly.
A method for crimping a stent to a balloon, comprising: i. elevating a temperature of the stent; ii. pre-crimping the stent including reducing a stent diameter to a first diameter while the stent is supported on a mandrel within a crimp head, wherein the stent has a first elevated temperature while the stent diameter is being reduced to the first diameter; iii. removing the stent and mandrel from the crimp head following the pre-crimping step and placing the stent on a balloon catheter to assemble a stent-catheter assembly, a balloon of the balloon catheter capable of being pressurized through a proximal end of an inflation lumen of the balloon catheter; iv. placing the stent-catheter assembly within the crimp head and increasing the stent temperature to a second elevated temperature, while the stent has the second elevated temperature, pressurizing the balloon via the inflation lumen while the stent-catheter assembly is within the crimp head, wherein the stent diameter expands to a second diameter that is up to about 25-30% greater than the first diameter when the balloon is pressurized; v. following step iv, pressing the stent into the balloon, the stent having a third elevated temperature, step v including reducing the stent diameter using the crimp head from the second diameter to about a final diameter while maintaining a balloon pressure including the step of reducing the stent diameter by about 25% to 40% from the second diameter while the balloon pressure is maintained; and vi. removing the stent-catheter assembly from the crimp head. i. elevating a temperature of the stent; ii. pre-crimping the stent including reducing a stent diameter to a first diameter while the stent is supported on a mandrel within a crimp head, wherein the stent has a first elevated temperature while the stent diameter is being reduced to the first diameter; iii. removing the stent and mandrel from the crimp head following the pre-crimping step and placing the stent on a balloon catheter to assemble a stent-catheter assembly, a balloon of the balloon catheter capable of being pressurized through a proximal end of an inflation lumen of the balloon catheter; iv. placing the stent-catheter assembly within the crimp head and increasing the stent temperature to a second elevated temperature, while the stent has the second elevated temperature, pressurizing the balloon via the inflation lumen while the stent-catheter assembly is within the crimp head, wherein the stent diameter expands to a second diameter that is up to about 25-30% greater than the first diameter when the balloon is pressurized; v. following step iv, pressing the stent into the balloon, the stent having a third elevated temperature, step v including reducing the stent diameter using the crimp head from the second diameter to about a final diameter while maintaining a balloon pressure including the step of reducing the stent diameter by about 25% to 40% from the second diameter while the balloon pressure is maintained; and vi. removing the stent-catheter assembly from the crimp head.
Use of a composition comprising: adenosine, together with a local anaesthetic; and magnesium cations for the preparation of a medicament for reducing damage to a tissue or organ resulting from cardioplegia, wherein the composition is administered as part of the recovery phase of a surgical procedure. adenosine, together with a local anaesthetic; and magnesium cations for the preparation of a medicament for reducing damage to a tissue or organ resulting from cardioplegia, wherein the composition is administered as part of the recovery phase of a surgical procedure.
A method for operating an engine, the engine includes an intake conduit configured to supply air to the engine, a primary air supply unit including a compressor and configured to permanently supply air to the intake conduit, a secondary air supply unit including an air reservoir and configured to selectively supply air to the intake conduit, including a fuel supply system, the fuel supply system having a liquid fuel supply unit configured to supply liquid fuel to a cylinder of the engine and a gaseous fuel supply unit configured to supply a gaseous fuel to the intake conduit, the method comprising: selectively increasing supply of gaseous fuel during increased engine load when the air and gaseous fuel ratio is equal to or above the first threshold value; selectively introducing and controlling supply of air from the secondary air supply unit to the intake conduit in addition to the air supplied by the primary air supply unit, and the supply of the air from the secondary air supply unit is stopped when the air and gaseous fuel ratio is equal to or less than the second threshold value, such that air and gaseous fuel ratio is maintained between a first threshold value and second threshold value, wherein the first threshold value corresponds to a rich limit of air and gaseous fuel mixture and the second threshold value corresponds to a lean limit of the air and gaseous fuel mixture; and selectively supplying liquid fuel in addition to increased supply of gaseous fuel when air and gaseous fuel ratio reaches the first threshold value so as to keep engine operation at desired engine operating curve. selectively increasing supply of gaseous fuel during increased engine load when the air and gaseous fuel ratio is equal to or above the first threshold value; selectively introducing and controlling supply of air from the secondary air supply unit to the intake conduit in addition to the air supplied by the primary air supply unit, and the supply of the air from the secondary air supply unit is stopped when the air and gaseous fuel ratio is equal to or less than the second threshold value, such that air and gaseous fuel ratio is maintained between a first threshold value and second threshold value, wherein the first threshold value corresponds to a rich limit of air and gaseous fuel mixture and the second threshold value corresponds to a lean limit of the air and gaseous fuel mixture; and selectively supplying liquid fuel in addition to increased supply of gaseous fuel when air and gaseous fuel ratio reaches the first threshold value so as to keep engine operation at desired engine operating curve.
An emulsified cosmetic for eyebrows or eyelashes, comprising: 0.05 to 0.2% by mass of a flavanonol derivative represented by the following formula in the formula, R 1 and R 2 are each independently a hydrogen atom or a methyl group; and 5 to 65% by mass of a volatile oil selected from volatile hydrocarbon oils and volatile silicone oils, wherein a mass ratio of the volatile oil to the flavanonol derivative being (parts by mass of the volatile oil)/(parts by mass of the flavanonol derivative) is 50 to 700.
A C-terminally truncated Guinea pig L-Asparaginase (GpA) variant sharing at least 85% sequence identity with residues 1 to 359 of SEQ ID NO:1, wherein said truncated GpA variant comprises at least one amino acid substitution relative to SEQ ID NO:1, wherein the at least one amino acid substitution relative to SEQ ID NO:1 is H10R, Q23R, K25E, K48E, Q52R, Q54R, P57S, D58E, H59D, A60T, A62V, D91A, D92E, K98Q, E101K, Q108H, S121F, G122A, H134Q, R147H, K193R, C198A, C198S, C198V, D217E, N233S, H236Q, S250A, Q288E, R301Q, E344D, L360P, T362S, A363V, D364E, L365E, H366R, Q367R, or S368P, or a combination thereof; and / or wherein the at least one amino acid substitution relative to SEQ ID NO:1 comprises: (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; and wherein the C-terminal truncation is at a position between 359 and 396 of SEQ ID NO:1. wherein the at least one amino acid substitution relative to SEQ ID NO:1 is H10R, Q23R, K25E, K48E, Q52R, Q54R, P57S, D58E, H59D, A60T, A62V, D91A, D92E, K98Q, E101K, Q108H, S121F, G122A, H134Q, R147H, K193R, C198A, C198S, C198V, D217E, N233S, H236Q, S250A, Q288E, R301Q, E344D, L360P, T362S, A363V, D364E, L365E, H366R, Q367R, or S368P, or a combination thereof; and / or wherein the at least one amino acid substitution relative to SEQ ID NO:1 comprises: (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; and (a) a cysteine residue at position 49, 52, 225, 257, 281, or 340, or a combination thereof; or (b) a lysine residue at position 7, 53, 54, 57, 58, 98, 106, 233, 250, 257, 281, 311 or 340, or a combination thereof; wherein the C-terminal truncation is at a position between 359 and 396 of SEQ ID NO:1.
A method for provisioning an integrated circuit, IC, device, the method comprising: implementing a provisioning process with the IC device, the provisioning process comprising transferring fragments of provisioning data to the IC device in a secure transfer operation, each fragment comprising at least a portion of the provisioning data and each fragment encrypted by a respective cryptographic key of a plurality of cryptographic keys, wherein transferring a fragment of the provisioning data to the IC device comprises: sending, by a provisioning system, a seed value associated with the fragment to the IC device, validating, by the provisioning system, integrity data returned from the IC device responsive to the seed value, the integrity data configured to characterize a portion of the integrated circuitry of the IC device specified by the seed value associated with the fragment, encrypting, by the provisioning system, the fragment with a cryptographic key generated for the fragment in response to validating the integrity data, and sending, by the provisioning system, the encrypted fragment to the IC device. sending, by a provisioning system, a seed value associated with the fragment to the IC device, validating, by the provisioning system, integrity data returned from the IC device responsive to the seed value, the integrity data configured to characterize a portion of the integrated circuitry of the IC device specified by the seed value associated with the fragment, encrypting, by the provisioning system, the fragment with a cryptographic key generated for the fragment in response to validating the integrity data, and sending, by the provisioning system, the encrypted fragment to the IC device.