mhurhangee/ep-ind-claims huggingface dataset:
A multi-photon optical imaging system utilizing an imaging process based on non-linear optical phenomena, the optical imaging system comprising a pulsed laser source for generating radiation and an optical system for compensating dispersion of radiation (105, 205); the optical system comprising: - a pair of optical components (P1, P2) arranged to compensate first-order dispersion by separating different wavelengths of the radiation spatially, and - a higher-order dispersion compensation device, the compensation device having the form of a phase plate, wherein the phase change for each wavelength of the radiation is adjusted by designing the height at the corresponding position of the plate so as to substantially compensate for higher-order dispersion, the height as a function of position (h(x)) being a substantially continuous function, at least on some parts of the plate, wherein the higher-order dispersion compensation device is adapted to cooperate with the pair of optical components by taking into account, at least; the optical properties (0_Prop) of the pair of optical components, and the relative positions between the higher-order dispersion compensation device and the pair of optical components. - a pair of optical components (P1, P2) arranged to compensate first-order dispersion by separating different wavelengths of the radiation spatially, and - a higher-order dispersion compensation device, the compensation device having the form of a phase plate, wherein the phase change for each wavelength of the radiation is adjusted by designing the height at the corresponding position of the plate so as to substantially compensate for higher-order dispersion, the height as a function of position (h(x)) being a substantially continuous function, at least on some parts of the plate, wherein the higher-order dispersion compensation device is adapted to cooperate with the pair of optical components by taking into account, at least; the optical properties (0_Prop) of the pair of optical components, and the relative positions between the higher-order dispersion compensation device and the pair of optical components.
A firing tip for a corona igniter, comprising: a base formed of metal and including at least one indentation, at least one rivet, each rivet disposed in one of said indentations of said base, said at least one rivet including at least one precious metal and having a melting point and/or wear resistance greater than said base; and characterised in that said base and said at least one rivet are together bent in the same direction. a base formed of metal and including at least one indentation, at least one rivet, each rivet disposed in one of said indentations of said base, said at least one rivet including at least one precious metal and having a melting point and/or wear resistance greater than said base; and
System for fixing a variable element, such as a wristlet, to a fixed object, such as a watchcase, said system comprising at least two retractable pins (4, 4'), two mutually independent movable levers (6, 6'), the movement of said levers (6, 6') displacing said pins (4, 4') into a deployed position allowing the variable element to be secured to the fixed object, or into a retracted position allowing the variable element to be separated from the fixed element, the movement of said levers (6, 6') being provoked by the displacement of a slider, the system further comprising a locking mechanism (12, 12') for keeping the levers in a position corresponding to a retracted position of the pins (4, 4'); characterized in that the slider allows the unlocking of the locking mechanism (12, 12') and the release of the levers (6, 6').
A downhole motor (35, 250, 300, 350, 650, 750, 800) for directional drilling, comprising: a driveshaft housing; a driveshaft rotatably disposed in the driveshaft housing; a bearing mandrel coupled to the driveshaft; a bend adjustment assembly (400, 652, 752, 802) including a first position that provides a first deflection angle between a longitudinal axis of the driveshaft housing and a longitudinal axis of the bearing mandrel; wherein the bend adjustment assembly (400, 652, 752, 802) includes a second position that provides a second deflection angle between the longitudinal axis of the driveshaft housing and the longitudinal axis of the bearing mandrel that is different from the first deflection angle; a locking assembly comprising a locked configuration configured to lock the bend adjustment assembly (400, 652, 752, 802) in at least one of the first position and the second position and an unlocked configuration configured to permit an actuator assembly to shift the bend adjustment assembly (400, 652, 752, 802) between the first position and the second position, and characterised in that: the locking assembly comprises a selector pin configured to retain the locking assembly in the unlocked configuration. a driveshaft housing; a driveshaft rotatably disposed in the driveshaft housing; a bearing mandrel coupled to the driveshaft; a bend adjustment assembly (400, 652, 752, 802) including a first position that provides a first deflection angle between a longitudinal axis of the driveshaft housing and a longitudinal axis of the bearing mandrel; wherein the bend adjustment assembly (400, 652, 752, 802) includes a second position that provides a second deflection angle between the longitudinal axis of the driveshaft housing and the longitudinal axis of the bearing mandrel that is different from the first deflection angle; a locking assembly comprising a locked configuration configured to lock the bend adjustment assembly (400, 652, 752, 802) in at least one of the first position and the second position and an unlocked configuration configured to permit an actuator assembly to shift the bend adjustment assembly (400, 652, 752, 802) between the first position and the second position, and characterised in that: the locking assembly comprises a selector pin configured to retain the locking assembly in the unlocked configuration.
An image encoding apparatus comprising: a block-based pseudo intra-predicted pixel generation unit that is configured to generate reference pixels in neighboring sub-blocks of a sub-block in an encoding target block by averaging predicted pixels of neighboring pixels in the neighboring sub-blocks and original pixel values in the neighboring sub-blocks or by performing weighting on the predicted pixels of the neighboring pixels in the neighboring sub-blocks and the original pixel values in the neighboring sub-blocks for intra-prediction direction using weighting coefficients that are generated from a quantization step size of the predicted pixels of the neighboring pixels in the neighboring sub-blocks for the intra-prediction direction, and is configured to generate pseudo intra-predicted pixels from the reference pixels and the intra-prediction directions, the predicted pixels of the neighboring pixels in the neighboring sub-blocks being pixels obtained by performing prediction on the neighboring pixels during encoding, a coding cost calculation unit that is configured to calculate coding costs for the intra-prediction directions from errors between the pseudo intra-predicted pixels and the pixels of the original image and generated bit amounts when the pseudo intra-predicted pixels are generated, and an intra-prediction direction setting unit that is configured to set an intra-prediction direction corresponding to the lowest coding cost among the coding costs as an optimal intra-prediction direction. a block-based pseudo intra-predicted pixel generation unit that is configured to generate reference pixels in neighboring sub-blocks of a sub-block in an encoding target block by averaging predicted pixels of neighboring pixels in the neighboring sub-blocks and original pixel values in the neighboring sub-blocks or by performing weighting on the predicted pixels of the neighboring pixels in the neighboring sub-blocks and the original pixel values in the neighboring sub-blocks for intra-prediction direction using weighting coefficients that are generated from a quantization step size of the predicted pixels of the neighboring pixels in the neighboring sub-blocks for the intra-prediction direction, and is configured to generate pseudo intra-predicted pixels from the reference pixels and the intra-prediction directions, the predicted pixels of the neighboring pixels in the neighboring sub-blocks being pixels obtained by performing prediction on the neighboring pixels during encoding, a coding cost calculation unit that is configured to calculate coding costs for the intra-prediction directions from errors between the pseudo intra-predicted pixels and the pixels of the original image and generated bit amounts when the pseudo intra-predicted pixels are generated, and an intra-prediction direction setting unit that is configured to set an intra-prediction direction corresponding to the lowest coding cost among the coding costs as an optimal intra-prediction direction.
A method for detecting a current attack in a computerized environment, the method being automatically performed by one or more computerized hosts of the computerized environment and comprising: - generating a signature which is specific for a type of activity in the computerized environment based on historic data (20, 21) of the activity, the signature specifying averaged normalized numbers of occurrences of the activity per time frame of a plurality of recurring time frames, - determining a threshold value for the activity based on the historic data of the activity and a statistical measure, - monitoring current data of the activity in the computerized environment, and - generating an attack detection alert based on determining that the current data of the activity exceeds the threshold value for a current time frame. - generating a signature which is specific for a type of activity in the computerized environment based on historic data (20, 21) of the activity, the signature specifying averaged normalized numbers of occurrences of the activity per time frame of a plurality of recurring time frames, - determining a threshold value for the activity based on the historic data of the activity and a statistical measure, - monitoring current data of the activity in the computerized environment, and - generating an attack detection alert based on determining that the current data of the activity exceeds the threshold value for a current time frame.
A single-chain bispecific diabody comprising: a. a variable domain of a heavy chain of an immunoglobulin with a first specificity, wherein said heavy chain (VH A) variable domain has the amino acid sequence according to SEQ ID NO:1, wherein the first specificity is directed against the TRAIL-R2 antigen; b. a variable domain of a light chain of an immunoglobulin with a second specificity, wherein said light chain (VL B) variable domain has the amino acid sequence according to SEQ ID NO:3, wherein the second specificity is directed against a T lymphocyte CD3; c. a variable domain of a heavy chain of an immunoglobulin with the specificity, wherein said heavy chain (VH B) variable domain has the amino acid sequence according to SEQ ID NO:5; and d. a variable domain of a light chain of an immunoglobulin with the specificity, wherein said light chain (VL A) variable domain has the amino acid sequence according to SEQ ID NO:7; wherein the VH and VL domains of the single-chain bispecific antibody are connected in the order VH A -VL B -VH B -VL A, wherein each VH and VL domain is connected with a peptide linker, wherein said peptide linker between the VH A and the VL B domains and between the VH B and the VL A domains consist of four Glycine amino acid residues and one Serine amino acid residue (GGGGS), and the peptide linker between the VL B and the VH B domains consists of three linker sequences consisting of four Glycine amino acid residues and one Serine amino acid residues each (GGGGS) 3. a. a variable domain of a heavy chain of an immunoglobulin with a first specificity, wherein said heavy chain (VH A) variable domain has the amino acid sequence according to SEQ ID NO:1, wherein the first specificity is directed against the TRAIL-R2 antigen; b. a variable domain of a light chain of an immunoglobulin with a second specificity, wherein said light chain (VL B) variable domain has the amino acid sequence according to SEQ ID NO:3, wherein the second specificity is directed against a T lymphocyte CD3; c. a variable domain of a heavy chain of an immunoglobulin with the specificity, wherein said heavy chain (VH B) variable domain has the amino acid sequence according to SEQ ID NO:5; and d. a variable domain of a light chain of an immunoglobulin with the specificity, wherein said light chain (VL A) variable domain has the amino acid sequence according to SEQ ID NO:7;
A magnetic recording head, comprising: a first shield; a second shield; and a spin orbital torque differential reader disposed between the first shield and the second shield, the SOT differential reader comprising: a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; and a cap layer disposed over the second spin hall effect layer. a first shield; a second shield; and a spin orbital torque differential reader disposed between the first shield and the second shield, the SOT differential reader comprising: a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; and a cap layer disposed over the second spin hall effect layer. a silicide seed multilayer disposed over the first shield; a first spin hall effect layer disposed over the silicide seed multilayer, the first spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; a first interlayer layer disposed over the first spin hall effect layer; a first free layer disposed over the first interlayer layer; a seed layer disposed over the first free layer; a second free layer disposed over the seed layer; a second interlayer disposed over the second free layer; a second spin hall effect layer disposed over the second interlayer layer, the second spin hall effect layer comprising BiSb or an alloy thereof having a crystalline structure of; and a cap layer disposed over the second spin hall effect layer.
A method for introducing an elongated prefab foundation element at least partially into the ground, the elongated prefab foundation element having a channel extending along the length of the foundation element, wherein a drilling head provided at the bottom of the hollow foundation element is driven by a driving shaft in the channel of the foundation element, the driving shaft being driven by a drilling engine near the top end of the foundation element, wherein the drilling head is a substantially closed drilling head, with ground being pushed sideways virtually entirely and the foundation element being introduced at least partially into the ground by the driving of the drilling head, following which the drilling head is left in the ground, characterized in that a downwardly directed pull and/or push force is exerted on the drilling engine, and via driving shaft to the drilling head by a device wherein the downwardly directed pull and/or push force results in the foundation element being introduced into the ground.
α-Alumina powder having a purity of at least 99.99% by weight, a specific surface area of from 0.1 to 2.0 m 2 /g, a relative density of from 55 to 90%, and a closed porosity of 4% or less, wherein in a weight-based particle size distribution obtained by the dry sieving test according to JIS K0069, an amount of particles having a particle size of less than 75 μm is 5% by weight or less; an amount of particles having a particle size exceeding 2.8 mm is 15% by weight or less; and at least one frequency maximum peak appears in a particle size range of 100 μm or more and to less than 850 μm, provided that the particle size is the largest mesh size of a standard sieve through which α-alumina powder particle cannot pass among the standard sieves according to JIS Z8801, wherein the relative density and the closed porosity are measured by the method which is disclosed in page 12, lines 1-12 of the application as filed and the method which is disclosed in page 12, lines 15-20 of the application as filed, respectively.
A method for operating a hybrid supply modulator including a switching mode power supplier, SMPS, for generating a current of a modulated power signal and a linear regulator for generating a sourcing current for supplementing a shortage amount of a current generated by the SMPS and generating a sinking current for removing an excessive amount of the current, the method comprising: detecting at least one of a current and a voltage at one or more points within a circuit of the hybrid supply modulator; characterised by performing a protection action corresponding to at least one electric over-stress situation based on the detecting result, wherein the protection action comprises shutting off a current flow of at least one transistor in the supply modulator. detecting at least one of a current and a voltage at one or more points within a circuit of the hybrid supply modulator; characterised by performing a protection action corresponding to at least one electric over-stress situation based on the detecting result, wherein the protection action comprises shutting off a current flow of at least one transistor in the supply modulator.
A nasal cannula system, comprising: a nasal body having a pair of nasal prongs configured for insertion into nasal passages when worn by a patient; an elongated gas delivery tube communicatingly connected to the nasal body, wherein the gas delivery tube has a generally flat side joined to a generally curved side that together form a passageway therebetween having a semi-circular cross-section; wherein the nasal body has a tube connector for connection to the gas delivery tube, wherein the tube connector has a generally flat side joined to a generally curved side forming a semi-circular cross-section configured for sliding reception of the gas delivery tube; the system has further an internal rib extending along a length of the gas delivery tube, spanning from the generally flat side to the generally curved side, wherein the internal rib is discontinuous along the length of the gas delivery tube so as to allow fluid communication between regions of the passageway on opposite sides of the internal rib; and wherein the tube connector has a flat exterior side corresponding to the generally flat side thereof, and the gas delivery tube has a flat exterior side corresponding to the generally flat side thereof, with both the flat exterior side of the tube connector and the flat exterior side of the gas delivery tube are configured to lay against a patient's skin when worn. a nasal body having a pair of nasal prongs configured for insertion into nasal passages when worn by a patient; an elongated gas delivery tube communicatingly connected to the nasal body, wherein the gas delivery tube has a generally flat side joined to a generally curved side that together form a passageway therebetween having a semi-circular cross-section; wherein the nasal body has a tube connector for connection to the gas delivery tube, wherein the tube connector has a generally flat side joined to a generally curved side forming a semi-circular cross-section configured for sliding reception of the gas delivery tube; the system has further an internal rib extending along a length of the gas delivery tube, spanning from the generally flat side to the generally curved side, wherein the internal rib is discontinuous along the length of the gas delivery tube so as to allow fluid communication between regions of the passageway on opposite sides of the internal rib; and wherein the tube connector has a flat exterior side corresponding to the generally flat side thereof, and the gas delivery tube has a flat exterior side corresponding to the generally flat side thereof, with both the flat exterior side of the tube connector and the flat exterior side of the gas delivery tube are configured to lay against a patient's skin when worn.
An electrical connector for connecting or finishing at least one cable, wherein the electrical connector has: an electrically conductive connector sheath and having a cable receiver receiving an end section of the at least one cable, wherein the connector sheath furthermore has at least one borehole receiving at least one fixing element which fixes the cable in the cable receiver, at least one cover element separate from said fixing element, the cover element comprising: a cylindrical base body with a barrel surface, a first cover surface which, in the mounted state of the cover element, forms a part of an outer surface of the electrical connector, and a second cover surface which, in the mounted state, faces an inner side of the electrical connector, characterized in that the electrically conductive connector sheath is mounted within an elastic sleeve, the fixing element comprises a break-off screw, the first cover surface has a convex form which inserts itself into the outer contour of the cable connector, the first cover surface has a curvature which corresponds to a cylinder barrel surface and the radius of which corresponds to an outer radius of the connector sheath, or the first cover surface has a curvature which corresponds to a sphere surface and the radius of which corresponds to an outer radius of the connector sheath. a cylindrical base body with a barrel surface, a first cover surface which, in the mounted state of the cover element, forms a part of an outer surface of the electrical connector, and a second cover surface which, in the mounted state, faces an inner side of the electrical connector, characterized in that the electrically conductive connector sheath is mounted within an elastic sleeve, the fixing element comprises a break-off screw, the first cover surface has a convex form which inserts itself into the outer contour of the cable connector, the first cover surface has a curvature which corresponds to a cylinder barrel surface and the radius of which corresponds to an outer radius of the connector sheath, or the first cover surface has a curvature which corresponds to a sphere surface and the radius of which corresponds to an outer radius of the connector sheath.