mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor light emitting diode structure of a type formed on a support (12, 14, 16), wherein said semiconductor light emitting diode is bonded to a heat sink structure, comprising: first and second index guiding layers (22, 26) formed over an AlGaN/AlGaN superlattice layer; and a multiple quantum well heterostructure of a composition including at least 25% aluminum, formed between said first and second index guiding layers (22, 26); wherein the support comprises a substrate, a template layer comprising GaN formed over and in contact with said substrate and a superlattice structure formed over and in contact with said template layer, said superlattice structure comprising a plurality of layer pairs, a first layer of said pairs being AIN and a second layer of said layer pairs being GaN, so that said multiple quantum well heterostructure is free from structural cracks. first and second index guiding layers (22, 26) formed over an AlGaN/AlGaN superlattice layer; and a multiple quantum well heterostructure of a composition including at least 25% aluminum, formed between said first and second index guiding layers (22, 26); wherein the support comprises a substrate, a template layer comprising GaN formed over and in contact with said substrate and a superlattice structure formed over and in contact with said template layer, said superlattice structure comprising a plurality of layer pairs, a first layer of said pairs being AIN and a second layer of said layer pairs being GaN, so that said multiple quantum well heterostructure is free from structural cracks.
A near-field sensing system comprising: a detector array including a first detector configured to generate a first input signal in response to a stimulus and a second detector configured to generate a second input signal in response to the stimulus, the first and second detectors being separated by a separation distance d; and a processor configured to generate an output signal from the first and second input signals, the output signal being a function of the difference of two values, the first value being a product of a first scalar multiplier value and a vector representation of the first input signal and the second value being a product of a second scalar multiplier value and a vector representation of the second input signal, wherein the first and second scalar multiplier values are each a function of a ratio X of the magnitudes of the first and second input signals, wherein the first scalar multiplier value is defined as 1 − X − 1 and the second scalar multiplier value is defined as 1 − X. a detector array including a first detector configured to generate a first input signal in response to a stimulus and a second detector configured to generate a second input signal in response to the stimulus, the first and second detectors being separated by a separation distance d; and a processor configured to generate an output signal from the first and second input signals, the output signal being a function of the difference of two values, the first value being a product of a first scalar multiplier value and a vector representation of the first input signal and the second value being a product of a second scalar multiplier value and a vector representation of the second input signal, wherein the first and second scalar multiplier values are each a function of a ratio X of the magnitudes of the first and second input signals, wherein the first scalar multiplier value is defined as 1 − X − 1 and the second scalar multiplier value is defined as 1 − X.
An automatic lithium target regenerating apparatus, which is allowed to automatically regenerate lithium of a lithium target, the automatic lithium target regenerating apparatus comprising: a lithium vapor deposition unit for vapor-depositing the lithium on the lithium target, wherein the lithium vapor deposition unit is constructed and arranged to, in use, vapor-deposit the lithium on the lithium target by moving to the lithium target side; a lithium film thickness measurement unit for measuring a film thickness of the lithium, and a lithium film thickness control unit for collecting measurement data on the lithium film on the lithium target. a lithium vapor deposition unit for vapor-depositing the lithium on the lithium target, wherein the lithium vapor deposition unit is constructed and arranged to, in use, vapor-deposit the lithium on the lithium target by moving to the lithium target side; a lithium film thickness measurement unit for measuring a film thickness of the lithium, and a lithium film thickness control unit for collecting measurement data on the lithium film on the lithium target.
A computer-implemented method, comprising: determining a time that a user has been locked out of a computing system; determining which of a plurality of time spans that the time falls within; prompting the user for a required password comprising a full password or a subset of the full password depending on the determined time span that the time falls within; and displaying a visual indicator corresponding to the determined time span or required password length on a visual display, wherein a length of the required password for login is progressively longer for each of the plurality of time spans as a time period that a respective time span covers increases. determining a time that a user has been locked out of a computing system; determining which of a plurality of time spans that the time falls within; prompting the user for a required password comprising a full password or a subset of the full password depending on the determined time span that the time falls within; and displaying a visual indicator corresponding to the determined time span or required password length on a visual display, wherein
Shaft for a rigid endoscopic instrument, comprising an elongate outer shaft and an elongate transmission element that can be arranged movably inside the outer shaft, characterized in that the outer shaft comprises a proximal portion and a distal portion, which can be connected releasably to each other, wherein the two portions are approximately the same length and are each about half the length of the outer shaft.
A mechanism for limiting the rotation about an axis of rotation of a rotating component 110 relative to a second component 120, the rotating component 110 being substantially fixed to the second component 120 in a vertical direction parallel to the axis of rotation, the mechanism comprising: a finger device 150 attached to the rotating component 110, wherein upon rotation of the rotating component 110, slides along an upper surface of the second component 120; characterized in comprising, a tang device 160 attached to the second component 120; the tang device 160 comprising a stop element 310 at one end and a ramp element 320 at an opposite end of the stop element, wherein the ramp element 320 projects slightly upward from the surface of second component 120; wherein, in an initial position of the rotating component 110, the finger device 150 resides underneath tang 160 between the second component 120 and the ramp element 320 of the tang device 160; wherein upon rotation of the rotating component 110 from said initial position the rotating component 110 attains a maximum position of rotation when the finger device 150 slides up the ramp element 320 onto the tang 160 and stops rotating when it abuts the stop element 310 and having surpassed its initial position underneath the tang; wherein said maximum position of rotation relative to said initial position is in excess of 360 degrees. a finger device 150 attached to the rotating component 110, wherein upon rotation of the rotating component 110, slides along an upper surface of the second component 120; characterized in comprising, a tang device 160 attached to the second component 120; the tang device 160 comprising a stop element 310 at one end and a ramp element 320 at an opposite end of the stop element, wherein the ramp element 320 projects slightly upward from the surface of second component 120; wherein, in an initial position of the rotating component 110, the finger device 150 resides underneath tang 160 between the second component 120 and the ramp element 320 of the tang device 160; wherein upon rotation of the rotating component 110 from said initial position the rotating component 110 attains a maximum position of rotation when the finger device 150 slides up the ramp element 320 onto the tang 160 and stops rotating when it abuts the stop element 310 and having surpassed its initial position underneath the tang; wherein said maximum position of rotation relative to said initial position is in excess of 360 degrees.
Drug delivery device for selecting and dispensing a number of doses of a medicament, the device comprising a medicament reservoir attached to a housing (10; 10'), a drive mechanism (30, 40) comprising a plunger (30; 30') axially movable relative to the housing (10; 10') for dispensing doses of the medicament from the medicament reservoir, a dose selecting element (60, 80; 60') releasably coupled to the drive mechanism and rotatable relative to the housing (10; 10') in a first direction for selecting a dose, a trigger (70; 70') axially movable relative to the housing (10; 10') for initiating dispensing of a dose selected by the dose selecting element (60, 80; 60'), wherein the trigger (70; 70') is adapted such that axial movement of the trigger relative to the housing - releases a clutch and a blocking mechanism within the device thereby permitting that a dispensing force or torque is transmitted from a spring to a drive mechanism for dose dispensing and - actuates the drive mechanism for dose dispensing, characterized in that the device further comprises a limiter (100; 100') selectively permitting and preventing axial movement of the trigger (70; 70') depending on the amount of the selected dose, wherein the limiter (100; 100') is rotationally constrained to the dose selecting element (60, 80; 60') and is axially constrained to the trigger (70; 70'), wherein one of the limiter (100; 100') and a component part axially coupled to the housing (10; 10') comprises a track (102; 102') which is in engagement with a blocking feature (112; 112') of the other of the limiter (100; 100') and the component part axially coupled to the housing (10; 10'), and wherein the track comprises at least one narrow section limiting relative axial movement between the track (102; 102') and the blocking feature (112; 112') and at least one wide section permitting relative axial movement between the track (102; 102') and the blocking feature (112; 112'). - releases a clutch and a blocking mechanism within the device thereby permitting that a dispensing force or torque is transmitted from a spring to a drive mechanism for dose dispensing and - actuates the drive mechanism for dose dispensing,
A method for configuring a control channel by a base station for inter-cell interference coordination, ICIC, in an orthogonal frequency division multiple access, OFDMA, system, comprising: determining a resource block, RB, to be used for configuring control channels; configuring the control channels by mapping the control channels in a data channel region within the RB; and transmitting the configured control channels, wherein configuring the control channels comprises mapping the control channels in units of resource element groups, REGs, the REGs being formed by binding four contiguous resource elements, REs, excluding REs mapped to reference signals, RSs, in the data channel region within the same RB; wherein configuring the control channels comprises after mapping all REGs in one RB, continuing the control channel mapping in a next RB in a time-domain preferred manner, and wherein an REG is formed only with REs in one symbol when a demodulation reference signal, DRS, does not exist within the one symbol, and the REG is formed by binding contiguous REs across two symbols to form a square when the DRS exists within the two symbols. determining a resource block, RB, to be used for configuring control channels; configuring the control channels by mapping the control channels in a data channel region within the RB; and transmitting the configured control channels, wherein configuring the control channels comprises mapping the control channels in units of resource element groups, REGs, the REGs being formed by binding four contiguous resource elements, REs, excluding REs mapped to reference signals, RSs, in the data channel region within the same RB; wherein configuring the control channels comprises after mapping all REGs in one RB, continuing the control channel mapping in a next RB in a time-domain preferred manner, and wherein an REG is formed only with REs in one symbol when a demodulation reference signal, DRS, does not exist within the one symbol, and the REG is formed by binding contiguous REs across two symbols to form a square when the DRS exists within the two symbols.
Wall anchor for wall-side fastening of a sanitary bathtub comprising a base body, which has an elongated hole, through which a fastening screw for fastening the base body to a wall is guided, wherein at least one profile holder is arranged for a C-profile rail having a longitudinal slot, which has means for the clamping fixation of a received C-profile rail, wherein the profile holder comprises a holding strip firmly connected to the base body and a clamping strip movable relative thereto, wherein the means are formed by the clamping strip, which is connected to at least one clamping lever, via which it can be pressed within a C-profile rail received by the profile holder against said rail, characterised in that the at least one clamping lever is pivotable about an axle extending in the longitudinal direction of the base body.
A detector array for an imaging system, including: an array of scintillator crystals, wherein each scintillator crystal includes a plurality of side surfaces and is laser etched with a pattern onto at least a portion of at least one scintillator crystal side surface by creating microfractures on, or on and directly underneath the surface of the scintillator crystals to diffusely reflect light; and an array of photodetectors optically coupled to the array of scintillator crystals. an array of scintillator crystals, wherein each scintillator crystal includes a plurality of side surfaces and is laser etched with a pattern onto at least a portion of at least one scintillator crystal side surface by creating microfractures on, or on and directly underneath the surface of the scintillator crystals to diffusely reflect light; and an array of photodetectors optically coupled to the array of scintillator crystals.
A system comprising: a support to receive a flow cell assembly; a securement and locating assembly having rotatable clamp arms (82,84) on opposing sides of the securement and locating assembly, each of the rotatable clamp arms (82,84) rotatable downwardly and translatable laterally along a clamp shaft, a spring to urge the clamp arms (82,84) slidingly to one side of the clamp shaft and a lever arm integral with the clamp arms (82,84) to urge the clamp arms (82,84) into engagement with a flow cell assembly toward the support in a Z-direction perpendicular to a plane of a flow cell assembly and toward a first reference position in an X-direction perpendicular to the Z-direction, the securement and locating assembly further having a Y-direction pusher that is biased toward a retracted position by a spring, the assembly further comprising a motor to urge the Y-direction pusher against the force of the spring to move a flow cell assembly toward a second reference position in a Y-direction perpendicular to the Z-direction and to the X-direction. a support to receive a flow cell assembly; a securement and locating assembly having rotatable clamp arms (82,84) on opposing sides of the securement and locating assembly, each of the rotatable clamp arms (82,84) rotatable downwardly and translatable laterally along a clamp shaft, a spring to urge the clamp arms (82,84) slidingly to one side of the clamp shaft and a lever arm integral with the clamp arms (82,84) to urge the clamp arms (82,84) into engagement with a flow cell assembly toward the support in a Z-direction perpendicular to a plane of a flow cell assembly and toward a first reference position in an X-direction perpendicular to the Z-direction, the securement and locating assembly further having a Y-direction pusher that is biased toward a retracted position by a spring, the assembly further comprising a motor to urge the Y-direction pusher against the force of the spring to move a flow cell assembly toward a second reference position in a Y-direction perpendicular to the Z-direction and to the X-direction.
Device for bringing about a material exchange between a liquid and a gas within a rotor having a packing, wherein the liquid is introduced in the centre of the rotor and is forced outwards, through the packing, by the centrifugal force generated by the rotation of the rotor, and wherein the gas surrounds the rotor and is pushed inwards from the outside, through the rotor, by the gas pressure, counter to the flow of liquid in the rotor, characterized in that the packing located in the rotor is divided into individual packing sectors which together form a circular disk, wherein each packing sector, which is in the shape of a sector of a ring, is formed of at least one structured packing which consists of multiple woven, knitted, screen- or grid-shaped superposed structured surfaces made of metal, in particular metal strips, or plastic or glass fibres to which the axis of rotation of the rotor is perpendicular.
Method for converting textile adhesive tapes, especially cable wrapping tapes, with a plurality of strip-shaped adhesive tapes each having two marginal cut edges forming longitudinal edges being produced from a parent roll of adhesive tape composed of a textile material having a single-sidedly applied adhesive coating, by cutting in the take-off direction of the parent roll, characterized in that the cutting takes place by means of ultrasound, with an ultrasound-excited cutting tool being used and with the ultrasonic cutting taking place, with simultaneous cooling in the cutting region and of the cutting tool, in such a way as to prevent melting of the adhesive coating, with the ultrasonic cutting taking place at a cutting angle (α) of 90° to 145°.
A method for teleportation and scaling in a virtual reality environment, comprising: displaying a virtual rendering of a first virtual location in a virtual environment for viewing at a first virtual scale relative to the virtual environment; receiving an input from a user selecting a second virtual location and selecting a second virtual scale for viewing of the second virtual location, the first virtual scale being different than the second virtual scale; and teleporting the user to the second virtual location at the second virtual scale after receiving the input. displaying a virtual rendering of a first virtual location in a virtual environment for viewing at a first virtual scale relative to the virtual environment; receiving an input from a user selecting a second virtual location and selecting a second virtual scale for viewing of the second virtual location, the first virtual scale being different than the second virtual scale; and teleporting the user to the second virtual location at the second virtual scale after receiving the input.
3D in vitro bi-phasic cartilage-bone organoid comprising: a) a layer of artificial cartilage tissue; and b) a layer of artificial bone tissue, wherein the artificial bone tissue comprises a structure-giving 3D zirconium oxide based, hydroxyapatite coated, ceramic scaffold and a bone marrow structure; wherein the bone marrow structure of the artificial bone tissue is prepared by seeding mesenchymal stem cells on the structure-giving scaffold and by adding hematopoietic stem cells after culturing of mesenchymal stem cell on the structure-giving scaffold for 2 to 10 days; and wherein the layer of artificial cartilage tissue contacts at least one surface of the layer of artificial bone tissue. a) a layer of artificial cartilage tissue; and b) a layer of artificial bone tissue, wherein the artificial bone tissue comprises a structure-giving 3D zirconium oxide based, hydroxyapatite coated, ceramic scaffold and a bone marrow structure;
An apparatus, comprising: a decoder for decoding a block of a picture by applying inverse tone mapping to an inter layer residue prediction process for the block wherein the inverse tone mapping is performed in the pixel domain, wherein the decoder includes: a motion compensator; a tone mapper coupled to said motion compensator; a combiner coupled to said tone mapper; a spatial upsampler coupled to said combiner; an inverse tone mapper coupled to said combiner, and wherein said motion compensator performs motion compensation in an enhancement layer of the picture to obtain a motion compensated prediction for the enhancement layer, said tone mapper performs tone mapping on the motion compensated prediction for the enhancement layer to obtain a tone mapped motion compensated low bit depth prediction for the block, said combiner adds a spatially upsampled residue from the base layer to the tone mapped motion compensated low bit depth prediction for the block to obtain a sum, and said inverse tone mapper performs the inverse tone mapping on the sum to obtain a higher bit depth prediction for the block. a decoder for decoding a block of a picture by applying inverse tone mapping to an inter layer residue prediction process for the block wherein the inverse tone mapping is performed in the pixel domain, wherein the decoder includes: a motion compensator; a tone mapper coupled to said motion compensator; a combiner coupled to said tone mapper; a spatial upsampler coupled to said combiner; an inverse tone mapper coupled to said combiner, and wherein said motion compensator performs motion compensation in an enhancement layer of the picture to obtain a motion compensated prediction for the enhancement layer, said tone mapper performs tone mapping on the motion compensated prediction for the enhancement layer to obtain a tone mapped motion compensated low bit depth prediction for the block, said combiner adds a spatially upsampled residue from the base layer to the tone mapped motion compensated low bit depth prediction for the block to obtain a sum, and said inverse tone mapper performs the inverse tone mapping on the sum to obtain a higher bit depth prediction for the block. a motion compensator; a tone mapper coupled to said motion compensator; a combiner coupled to said tone mapper; a spatial upsampler coupled to said combiner; an inverse tone mapper coupled to said combiner, and wherein said motion compensator performs motion compensation in an enhancement layer of the picture to obtain a motion compensated prediction for the enhancement layer, said tone mapper performs tone mapping on the motion compensated prediction for the enhancement layer to obtain a tone mapped motion compensated low bit depth prediction for the block, said combiner adds a spatially upsampled residue from the base layer to the tone mapped motion compensated low bit depth prediction for the block to obtain a sum, and said inverse tone mapper performs the inverse tone mapping on the sum to obtain a higher bit depth prediction for the block.