mhurhangee/ep-ind-claims huggingface dataset:
A cot comprising: a support frame comprising a front end, and a back end; a pair of front legs pivotally coupled to the support frame, wherein each front leg comprises at least one front wheel; a pair of back legs pivotally coupled to the support frame, wherein each back leg comprises at least one back wheel; a cot actuation system comprising a front actuator that moves the front legs and a back actuator that moves the back legs, wherein the front actuator and the back actuator comprise hydraulic actuators, and wherein the support frame comprises a pair of parallel lateral side members extending between the front end and the back end; the pair of parallel lateral side members comprise tracks; each front leg comprises a front carriage member slidingly engaged with the tracks, and each back leg comprises a back carriage member slidingly engaged with the tracks; the front actuator and the back actuator raise or lower the support frame together; the front actuator is configured to raise or lower the front end of the support frame separately from the back actuator; and the back actuator is configured to raise or lower the back end of the support frame separately from the front actuator. a support frame comprising a front end, and a back end; a pair of front legs pivotally coupled to the support frame, wherein each front leg comprises at least one front wheel; a pair of back legs pivotally coupled to the support frame, wherein each back leg comprises at least one back wheel; a cot actuation system comprising a front actuator that moves the front legs and a back actuator that moves the back legs, wherein the front actuator and the back actuator comprise hydraulic actuators, and wherein the support frame comprises a pair of parallel lateral side members extending between the front end and the back end; the pair of parallel lateral side members comprise tracks; each front leg comprises a front carriage member slidingly engaged with the tracks, and each back leg comprises a back carriage member slidingly engaged with the tracks; the front actuator and the back actuator raise or lower the support frame together; the front actuator is configured to raise or lower the front end of the support frame separately from the back actuator; and the back actuator is configured to raise or lower the back end of the support frame separately from the front actuator. the support frame comprises a pair of parallel lateral side members extending between the front end and the back end; the pair of parallel lateral side members comprise tracks; each front leg comprises a front carriage member slidingly engaged with the tracks, and each back leg comprises a back carriage member slidingly engaged with the tracks; the front actuator and the back actuator raise or lower the support frame together; the front actuator is configured to raise or lower the front end of the support frame separately from the back actuator; and the back actuator is configured to raise or lower the back end of the support frame separately from the front actuator.
A method for simulating film grain in an input image block, comprising: a) computing an average value of the pixel intensities for the block; and b) selecting a film grain block from at least one previously established pool of film grain blocks whose associated block intensity level for which the film grain block was generated most closely matches the average value of the pixel intensities of the input image block, the pool being organized based on image intensities, and c) blending the selected film grain block with the input image block. a) computing an average value of the pixel intensities for the block; and b) selecting a film grain block from at least one previously established pool of film grain blocks whose associated block intensity level for which the film grain block was generated most closely matches the average value of the pixel intensities of the input image block, the pool being organized based on image intensities, and c) blending the selected film grain block with the input image block.
An optical fiber assembly (100, 300, 400) comprising: a first fiber array spacer (80, 80A, 80B) comprising: an array of spacer fibers, wherein individual spacer fibers of the array of spacer fibers are bonded to one another; and a first fiber ribbon comprising a first array of optical fibers (75, 52), wherein: each optical fiber of the first array of optical fibers comprises a glass portion (74, 74A, 74B); and the glass portion (74, 74A, 74B) of each optical fiber (75, 52) of the first array of optical fibers (75, 52) is bonded to the first fiber array spacer (80, 80A, 80B) such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers (75, 52) of the first array of optical fibers; characterised in that there is substantially no gap between adjacent spacer fibers. a first fiber array spacer (80, 80A, 80B) comprising: an array of spacer fibers, wherein individual spacer fibers of the array of spacer fibers are bonded to one another; and a first fiber ribbon comprising a first array of optical fibers (75, 52), wherein: each optical fiber of the first array of optical fibers comprises a glass portion (74, 74A, 74B); and the glass portion (74, 74A, 74B) of each optical fiber (75, 52) of the first array of optical fibers (75, 52) is bonded to the first fiber array spacer (80, 80A, 80B) such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers (75, 52) of the first array of optical fibers; characterised in that there is substantially no gap between adjacent spacer fibers. each optical fiber of the first array of optical fibers comprises a glass portion (74, 74A, 74B); and the glass portion (74, 74A, 74B) of each optical fiber (75, 52) of the first array of optical fibers (75, 52) is bonded to the first fiber array spacer (80, 80A, 80B) such that a longitudinal axis of the individual spacer fibers is transverse to a longitudinal axis of individual optical fibers (75, 52) of the first array of optical fibers;
A method of aperiodic sounding reference symbol, SRS, configuration in a wireless communication system based on a 3GPP TS series 36 standard and on a corresponding group of transmission modes comprising an uplink transmission mode 1 and an uplink transmission mode 2, the method comprising: - configuring uplink transmission mode equal to uplink transmission mode 2 selected from said group of transmission modes: and - configuring aperiodic SRS for downlink control information, DCI, format 0/1a, wherein aperiodic SRS parameter sets for DCI format 4 are not configured. - configuring uplink transmission mode equal to uplink transmission mode 2 selected from said group of transmission modes: and - configuring aperiodic SRS for downlink control information, DCI, format 0/1a,
A method for wireless communications, comprising: generating a frame structure that contains a first portion decodable by a first group of wireless nodes and a second portion decodable by a second group of wireless nodes capable of simultaneous multi-user communication; wherein the first portion includes a first very high throughput signal field, V/HT-SIG, for use by the second group of wireless nodes and a second very high throughput signal field, V/HT-SIG, for use by the second group of wireless nodes; and wherein the second portion includes a third very high throughput signal field, VHT-SIG, for use by the second group of wireless nodes; and transmitting the frame structure to a plurality of devices. generating a frame structure that contains a first portion decodable by a first group of wireless nodes and a second portion decodable by a second group of wireless nodes capable of simultaneous multi-user communication; wherein the first portion includes a first very high throughput signal field, V/HT-SIG, for use by the second group of wireless nodes and a second very high throughput signal field, V/HT-SIG, for use by the second group of wireless nodes; and wherein the second portion includes a third very high throughput signal field, VHT-SIG, for use by the second group of wireless nodes; and transmitting the frame structure to a plurality of devices.
A concrete tower for wind-power generators, comprising: a. a pyramidal structure having three segmented flat walls (x, y, z) and three segmented rounded walls (a, b, c), alternated and joined together to form a structure, b. the pyramidal structure having a triangular cross section with rounded vertices, such that the tower gradually narrows and ends into a circular cross section, c. the pyramidal structure having a plurality of stepped and stacked pyramidal sections assembled from flat concrete segments and circular concrete segments, characterized in that d. the tower is pre-stressed, whereas the flat concrete segments and the circular concrete segments which form each pyramidal section are joined together through horizontal pre-stressing cables being provided within horizontal ducts (29, 39) that are respectively embedded into the circular and flat concrete segments (20, 30); and the pyramidal sections, are joined together through vertical pre-stressing cables being provided within vertical ducts that are embedded into the circular concrete segments, and e. the tower further comprising an extension, having cylindrical sections made of pre-stressed concrete joined together by pre-stressing cables being provided within vertical ducts that are embedded into the cylindrical sections. a. a pyramidal structure having three segmented flat walls (x, y, z) and three segmented rounded walls (a, b, c), alternated and joined together to form a structure, b. the pyramidal structure having a triangular cross section with rounded vertices, such that the tower gradually narrows and ends into a circular cross section, c. the pyramidal structure having a plurality of stepped and stacked pyramidal sections assembled from flat concrete segments and circular concrete segments, d. the tower is pre-stressed, whereas the flat concrete segments and the circular concrete segments which form each pyramidal section are joined together through horizontal pre-stressing cables being provided within horizontal ducts (29, 39) that are respectively embedded into the circular and flat concrete segments (20, 30); and the pyramidal sections, are joined together through vertical pre-stressing cables being provided within vertical ducts that are embedded into the circular concrete segments, and the flat concrete segments and the circular concrete segments which form each pyramidal section are joined together through horizontal pre-stressing cables being provided within horizontal ducts (29, 39) that are respectively embedded into the circular and flat concrete segments (20, 30); and the pyramidal sections, are joined together through vertical pre-stressing cables being provided within vertical ducts that are embedded into the circular concrete segments, and e. the tower further comprising an extension, having cylindrical sections made of pre-stressed concrete joined together by pre-stressing cables being provided within vertical ducts that are embedded into the cylindrical sections.
An automatic analysis device comprising: a control portion configured to control overall operations of the automatic analysis device; a dispensing mechanism configured to dispense a reagent from a reagent container in which the reagent is stored; a first storage area located in a normal movable area which is a part of a movable area of the dispensing mechanism, and in which the reagent container is stored; and a second storage area located in an area other than the normal movable area in the movable area of the dispensing mechanism, and in which an additional reagent container is stored, wherein the dispensing mechanism performs an access operation in the normal movable area when a normal operation is performed, and performs an access operation to the second storage area when a predetermined instruction is received, the second storage area is an area which is accessible for an operator for performing a manual operation on the second storage area without stopping the normal operation, the predetermined instruction is issued by the control portion of the automatic analysis device after the operator has performed the manual operation on the second storage area, and the second storage area is configured to store the additional reagent container and a sample container storing a sample to be analyzed. a control portion configured to control overall operations of the automatic analysis device; a dispensing mechanism configured to dispense a reagent from a reagent container in which the reagent is stored; a first storage area located in a normal movable area which is a part of a movable area of the dispensing mechanism, and in which the reagent container is stored; and a second storage area located in an area other than the normal movable area in the movable area of the dispensing mechanism, and in which an additional reagent container is stored, wherein the dispensing mechanism performs an access operation in the normal movable area when a normal operation is performed, and performs an access operation to the second storage area when a predetermined instruction is received, the second storage area is an area which is accessible for an operator for performing a manual operation on the second storage area without stopping the normal operation, the predetermined instruction is issued by the control portion of the automatic analysis device after the operator has performed the manual operation on the second storage area, and the second storage area is configured to store the additional reagent container and a sample container storing a sample to be analyzed.
A method for determining pH of a composition, the method comprising: preparing a calibration curve of a chemical species comprising an acid dissociation constant, wherein preparing the calibration curve comprises plotting a chemical shift of the chemical species relative to pH; determining a chemical shift of a composition comprising the chemical species; determining the pH of the composition with the chemical shift of the composition and the calibration curve wherein the chemical shift of the composition is determined with nuclear magnetic resonance spectroscopy; and wherein the chemical species comprises a phosphate group, tetrasodium pyrophosphate, tetrapotassium pyrophosphate, phosphoric acid, sodium monofluorophosphate, dicalcium phosphate dehydrate, sodium triphosphate, sodium hexametaphosphate, or combinations thereof, wherein the chemical shift of the composition is determined with phosphorus-31 nuclear magnetic resonance spectroscopy ( 31 P NMR). preparing a calibration curve of a chemical species comprising an acid dissociation constant, wherein preparing the calibration curve comprises plotting a chemical shift of the chemical species relative to pH; determining a chemical shift of a composition comprising the chemical species; determining the pH of the composition with the chemical shift of the composition and the calibration curve wherein the chemical shift of the composition is determined with nuclear magnetic resonance spectroscopy; and wherein the chemical species comprises a phosphate group, tetrasodium pyrophosphate, tetrapotassium pyrophosphate, phosphoric acid, sodium monofluorophosphate, dicalcium phosphate dehydrate, sodium triphosphate, sodium hexametaphosphate, or combinations thereof, wherein the chemical shift of the composition is determined with phosphorus-31 nuclear magnetic resonance spectroscopy ( 31 P NMR).
A lyophilized composition comprising: (i) Compound 1 in an amount from 1% to 10% w/w or a pharmaceutically acceptable salt thereof, and (ii) cyclodextrin in an amount from 90% to 99% w/w. (i) Compound 1 in an amount from 1% to 10% w/w or a pharmaceutically acceptable salt thereof, and (ii) cyclodextrin in an amount from 90% to 99% w/w.
A method for manufacturing an optical device comprising following steps: • providing an optical article in a form suitable for simultaneous lamination of a pressure sensitive adhesive layer and of a thermoplastic film, the said optical article comprising a convex optical surface and a concave optical surface facing each other, wherein the convex and/or the concave optical surface(s) is (are) a receiving surface(s) intended to receive the pressure sensitive adhesive on which the thermoplastic film is intended to be arranged and wherein the said receiving surface has an arithmetic average profile roughness, R a, greater or equal to 0.01 μm and less or equal to 0.3 μm and/or wherein the said receiving surface has a profile roughness root mean square slope, R dq, greater or equal to 0.2° and less or equal to 1.2° characterized by • providing a pressure sensitive adhesive layer and a thermoplastic film; • laminating the pressure sensitive adhesive layer and the thermoplastic film directly on a receiving surface of the optical article so as the pressure sensitive adhesive adheres on said receiving surface and so as the thermoplastic film is arranged on the pressure sensitive adhesive. • providing an optical article in a form suitable for simultaneous lamination of a pressure sensitive adhesive layer and of a thermoplastic film, the said optical article comprising a convex optical surface and a concave optical surface facing each other, wherein the convex and/or the concave optical surface(s) is (are) a receiving surface(s) intended to receive the pressure sensitive adhesive on which the thermoplastic film is intended to be arranged and wherein the said receiving surface has an arithmetic average profile roughness, R a, greater or equal to 0.01 μm and less or equal to 0.3 μm and/or wherein the said receiving surface has a profile roughness root mean square slope, R dq, greater or equal to 0.2° and less or equal to 1.2° characterized by • providing a pressure sensitive adhesive layer and a thermoplastic film; • laminating the pressure sensitive adhesive layer and the thermoplastic film directly on a receiving surface of the optical article so as the pressure sensitive adhesive adheres on said receiving surface and so as the thermoplastic film is arranged on the pressure sensitive adhesive.
A radiation curable composition comprising: (i) at least one oligomeric form of polyethylene terephtalate containing hydroxyl groups; and (ii) an ethylenically unsaturated photopolymerizable compound selected from the group consisting of butanediol diacrylate, 1,6-hexanediol diacrylate, tripropylene glycol diacrylate, diethylene glycol diacrylate, triethylene glycol diacrylate, tetraethylene glycol diacrylate, N-vinyl pyrrolidone, neopentyl glycol diacrylate, isobornyl acrylate, 2-ethylhexyl acrylate, methyl methacrylate, ethyl methacrylate, 2-ethylhexyl methacrylate, isobutyl methacrylate, glycidyl methacrylate, glycidyl acrylate, butyl acrylate, 2-hydroxyethyl (meth)acrylate, 2-methoxyethyl acrylate, 2-phenoxyethyl acrylate, 2-hydroxypropyl acrylate, benzyl acrylate, tetrahydrofurfuryl acrylate, pentaerythritol triacrylate and combinations thereof. (i) at least one oligomeric form of polyethylene terephtalate containing hydroxyl groups; and (ii) an ethylenically unsaturated photopolymerizable compound selected from the group consisting of butanediol diacrylate, 1,6-hexanediol diacrylate, tripropylene glycol diacrylate, diethylene glycol diacrylate, triethylene glycol diacrylate, tetraethylene glycol diacrylate, N-vinyl pyrrolidone, neopentyl glycol diacrylate, isobornyl acrylate, 2-ethylhexyl acrylate, methyl methacrylate, ethyl methacrylate, 2-ethylhexyl methacrylate, isobutyl methacrylate, glycidyl methacrylate, glycidyl acrylate, butyl acrylate, 2-hydroxyethyl (meth)acrylate, 2-methoxyethyl acrylate, 2-phenoxyethyl acrylate, 2-hydroxypropyl acrylate, benzyl acrylate, tetrahydrofurfuryl acrylate, pentaerythritol triacrylate and combinations thereof.
Arrangement of a fully reversing double-flow gearbox, for motor vehicles and construction machines, with two branches of output flow, wherein all forward speed stages are reversible, the arrangement comprising an input shaft and a gearbox output shaft, arranged co-axially, wherein a first disc clutch and a second disc clutch are mounted on the input shaft, thereby producing two branches of output flow, wherein the first branch of output flow comprises the first disc clutch connected to a first disc clutch output shaft, and wherein the second branch of output flow comprises the second disc clutch connected to a second disc clutch output shaft, wherein the first branch of output flow further comprises a tooth wheel fixedly mounted on the first disc clutch output shaft and engaged with a first tooth wheel fixedly mounted on a first layshaft, wherein the first layshaft further supports a second tooth wheel and a third tooth wheel all fixedly mounted thereon, wherein the second branch of output flow further comprises a tooth wheel fixedly mounted on the second disc clutch output shaft and engaged with a tooth wheel fixedly mounted on a second layshaft, wherein the second layshaft supports a forth tooth wheel, a fifth tooth wheel and a sixth tooth wheel all fixedly mounted thereon, wherein a first synchronisation clutch, a second synchronisation clutch, and a third synchronisation clutch are fixedly mounted on the gearbox output shaft, and seventh to eleventh tooth wheels ( 71 to 75) are further detachably mounted on the gearbox output shaft, wherein the first synchronisation clutch is detachably connectable selectively on one side to the tooth wheel fixedly mounted on the first disc clutch output shaft or on the other side to the seventh tooth wheel, the second synchronisation clutch is detachably connectable selectively on one side to the tenth tooth wheel or on the other side to the eleventh tooth wheel, and the third synchronisation clutch is detachably connectable selectively on one side to the eighth tooth wheel or on the other side to the ninth tooth wheel, wherein the seventh tooth wheel is engaged with the second tooth wheel, the eighth tooth wheel is engaged with the third tooth wheel, the ninth tooth wheel is engaged with the forth tooth wheel, the tenth tooth wheel is engaged with the fifth tooth wheel, and the eleventh tooth wheel is engaged with the sixth tooth wheel, wherein the first tooth wheel is further engaged with an inserted tooth wheel detachably mounted on the second layshaft, wherein a reversing synchronisation clutch is fixedly mounted on the second layshaft and detachably connectable to the inserted tooth wheel.