mhurhangee/ep-ind-claims huggingface dataset:
A telecommunications panel assembly comprising: a chassis including a front, the chassis further defining a top, a bottom, and two sides; a plurality of adapter mounting modules mounted to the chassis at the front, each adapter mounting module defining a first wall separated from a second opposing parallel wall by an opening, each adapter mounting module defining a plurality of adapter mounting locations, each configured to slidably receive at least one adapter block defining a plurality of fiber optic adapters in an insertion direction; wherein each adapter mounting location defines a flexible cantilever arm at the first wall for latching with the at least one adapter block and a corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm, the third wall defining a keying slot for orienting the at least one adapter block in the correct orientation for insertion into the adapter mounting module, the third wall also defining a positive stop surface for limiting further movement of the at least one adapter block in the insertion direction, wherein at least one of the adapter mounting locations is configured such that two adjacent adapter blocks can share the same flexible cantilever arm at the first wall and the corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm in keying and latching the adapter blocks to the adapter mounting module. a chassis including a front, the chassis further defining a top, a bottom, and two sides; a plurality of adapter mounting modules mounted to the chassis at the front, each adapter mounting module defining a first wall separated from a second opposing parallel wall by an opening, each adapter mounting module defining a plurality of adapter mounting locations, each configured to slidably receive at least one adapter block defining a plurality of fiber optic adapters in an insertion direction; wherein each adapter mounting location defines a flexible cantilever arm at the first wall for latching with the at least one adapter block and a corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm, the third wall defining a keying slot for orienting the at least one adapter block in the correct orientation for insertion into the adapter mounting module, the third wall also defining a positive stop surface for limiting further movement of the at least one adapter block in the insertion direction, wherein at least one of the adapter mounting locations is configured such that two adjacent adapter blocks can share the same flexible cantilever arm at the first wall and the corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm in keying and latching the adapter blocks to the adapter mounting module.
A test preprocessing method comprising: detecting a brightness of a specimen based on an image of the specimen acquired by capturing the image by backlight image capture by an image acquisition unit before test processing of the specimen, characterized by further comprising: controlling the image acquisition unit such that the image acquisition unit repetitively performs the backlight image capture while adjusting a shutter speed until the brightness of the image reaches a predetermined value; detecting the chylous state based on the shutter speed value in a state in which the brightness has reached the predetermined value; detecting a hue of the specimen based on the target image captured at the shutter speed in the state in which the brightness has reached the predetermined value; and detecting a hemolytic state of the specimen based on the hue. detecting a brightness of a specimen based on an image of the specimen acquired by capturing the image by backlight image capture by an image acquisition unit before test processing of the specimen, characterized by further comprising: controlling the image acquisition unit such that the image acquisition unit repetitively performs the backlight image capture while adjusting a shutter speed until the brightness of the image reaches a predetermined value; detecting the chylous state based on the shutter speed value in a state in which the brightness has reached the predetermined value; detecting a hue of the specimen based on the target image captured at the shutter speed in the state in which the brightness has reached the predetermined value; and detecting a hemolytic state of the specimen based on the hue. controlling the image acquisition unit such that the image acquisition unit repetitively performs the backlight image capture while adjusting a shutter speed until the brightness of the image reaches a predetermined value; detecting the chylous state based on the shutter speed value in a state in which the brightness has reached the predetermined value; detecting a hue of the specimen based on the target image captured at the shutter speed in the state in which the brightness has reached the predetermined value; and detecting a hemolytic state of the specimen based on the hue.
A multifunctional vertebral body former, comprising: a balloon structure comprising a balloon outer tube, a balloon handle and a balloon; an outer surface of a proximal end of the balloon outer tube is provided with, in a sequence from inside to outside, a balloon handle fitting, the balloon handle and a balloon delivery snap; wherein the balloon handle is connected with the balloon delivery snap by a snap in a rotationally fixed manner, the balloon handle fitting is fixedly connected with the balloon handle; a distal end of the balloon outer tube is fixedly connected with the balloon, the balloon is sealed at a distal end thereof; a conveying tube structure, comprising a shape memory alloy tube, a slider, and an outer tube adjusting handle, wherein the shape memory alloy tube is sleeved on the balloon outer tube and an exterior of the balloon, the shape memory alloy tube is formed integrally with the slider by injection molding; a proximal end of the slider is detachably connected with the balloon deliver snap through a first clamping lug; the slider is provided with a threaded outer surface, the outer tube adjusting handle having an internal thread structure is sleeved on the outer surface of the slider, wherein the outer tube adjusting handle is operatively rotated to drive the slider to move back and forth, so that a protruding amount of a distal end of the shape memory alloy tube relative to a distal end of the outer tube, and a protruding amount of a distal end of the balloon relative to the distal end of the shape memory alloy tube are adjustably controlled. a balloon structure comprising a balloon outer tube, a balloon handle and a balloon; an outer surface of a proximal end of the balloon outer tube is provided with, in a sequence from inside to outside, a balloon handle fitting, the balloon handle and a balloon delivery snap; wherein the balloon handle is connected with the balloon delivery snap by a snap in a rotationally fixed manner, the balloon handle fitting is fixedly connected with the balloon handle; a distal end of the balloon outer tube is fixedly connected with the balloon, the balloon is sealed at a distal end thereof; a conveying tube structure, comprising a shape memory alloy tube, a slider, and an outer tube adjusting handle, wherein the shape memory alloy tube is sleeved on the balloon outer tube and an exterior of the balloon, the shape memory alloy tube is formed integrally with the slider by injection molding; a proximal end of the slider is detachably connected with the balloon deliver snap through a first clamping lug; the slider is provided with a threaded outer surface, the outer tube adjusting handle having an internal thread structure is sleeved on the outer surface of the slider, wherein the outer tube adjusting handle is operatively rotated to drive the slider to move back and forth, so that a protruding amount of a distal end of the shape memory alloy tube relative to a distal end of the outer tube, and a protruding amount of a distal end of the balloon relative to the distal end of the shape memory alloy tube are adjustably controlled.
A gNB comprising: means for achieving time synchronization between the gNB and a User Equipment, UE, by using synchronization signals, the synchronization signals including Primary Synchronization Signal, PSS, and Secondary Synchronization Signal, SSS, wherein the PSS, the SSS and a Physical Broadcast Channel, PBCH, are included in a Synchronization Signal Block, SSB, means for determining the number of the SSBs in a synchronization signal burst, SS burst, wherein a frequency band is associated with a value L indicating a maximum number of the SSBs in the SS burst; wherein, on a condition that the value L is less than a threshold L value, an SSB index which is index of the SSB is encoded in a PBCH demodulation reference signal, DMRS, sequence, wherein, on a condition that the value L is 64, the SSB index is encoded in both of the PBCH DMRS sequence and a PBCH payload, wherein, on the condition that the value L is 64, the SSB index consists of least significant bits, LSBs, and most significant bits, MSBs, wherein the LSBs for the SSB index is encoded in the PBCH DMRS sequence, and wherein the MSBs for the SSB index is encoded in the PBCH payload. means for achieving time synchronization between the gNB and a User Equipment, UE, by using synchronization signals, the synchronization signals including Primary Synchronization Signal, PSS, and Secondary Synchronization Signal, SSS, wherein the PSS, the SSS and a Physical Broadcast Channel, PBCH, are included in a Synchronization Signal Block, SSB, means for determining the number of the SSBs in a synchronization signal burst, SS burst, wherein a frequency band is associated with a value L indicating a maximum number of the SSBs in the SS burst; wherein, on a condition that the value L is less than a threshold L value, an SSB index which is index of the SSB is encoded in a PBCH demodulation reference signal, DMRS, sequence, wherein, on a condition that the value L is 64, the SSB index is encoded in both of the PBCH DMRS sequence and a PBCH payload, wherein, on the condition that the value L is 64, the SSB index consists of least significant bits, LSBs, and most significant bits, MSBs, wherein the LSBs for the SSB index is encoded in the PBCH DMRS sequence, and wherein the MSBs for the SSB index is encoded in the PBCH payload.
A support base for a child safety seat assembly, comprising: a shell body, an anti-rebound frame (130, 230, 230',330, 330') assembled with the shell body, and a latch (138, 344) operable to lock the anti-rebound frame (130, 230, 230',330, 330') with the shell body, the shell body having a bottom surface that supports the support base when resting on a support surface and an upper surface for installing a child carrier, characterized in that: an end of the shell body is provided with a channel, and two side portions (130A, 238A, 238A', 332A) of the anti-rebound frame (130, 230, 230',330, 330') are respectively positionable adjacent to two sidewalls of the channel of the shell body, the anti-rebound frame (130, 230, 230',330, 330') being movable relative to the shell body to extend upward past the upper surface and to extend downward past the bottom surface.
A monovalent Fab' antibody fragment binding specifically to CD154 for use in a method for treating an autoimmune, inflammatory, neurodegenerative or neuromuscular disorder in a human subject, which method comprises: a) administering an initial loading dose of 20-60 mg/kg of said antibody fragment binding specifically to CD154 to a human subject in need of such treatment; and b) 2 weeks after the initial loading dose administering a further dose or doses of half of the initial loading dose with a frequency of once every other week of said antibody fragment binding specifically to CD154 to the subject in need of such treatment, wherein said antibody fragment has the light chain sequence shown in SEQ ID NO:9 and the heavy chain sequences shown in SEQ ID NO:10, and wherein said antibody fragment has i) a maleimide group covalently linked to a single thiol group in the modified hinge region; a lysine residue is covalently linked to the maleimide group; and ii) a methoxypoly(ethyleneglycol) polymer having a molecular weight of approximately 20 kDa is attached to each of the amine groups on the lysine residue. a) administering an initial loading dose of 20-60 mg/kg of said antibody fragment binding specifically to CD154 to a human subject in need of such treatment; and b) 2 weeks after the initial loading dose administering a further dose or doses of half of the initial loading dose with a frequency of once every other week of said antibody fragment binding specifically to CD154 to the subject in need of such treatment, wherein said antibody fragment has the light chain sequence shown in SEQ ID NO:9 and the heavy chain sequences shown in SEQ ID NO:10, and wherein said antibody fragment has i) a maleimide group covalently linked to a single thiol group in the modified hinge region; a lysine residue is covalently linked to the maleimide group; and ii) a methoxypoly(ethyleneglycol) polymer having a molecular weight of approximately 20 kDa is attached to each of the amine groups on the lysine residue. i) a maleimide group covalently linked to a single thiol group in the modified hinge region; a lysine residue is covalently linked to the maleimide group; and ii) a methoxypoly(ethyleneglycol) polymer having a molecular weight of approximately 20 kDa is attached to each of the amine groups on the lysine residue.
A heat transfer fin comprising: a base portion having a flat surface; a cylindrical collar portion extending upwardly from the base portion; and a flared portion flaring radially outwardly from an entire upper end of the collar portion; characterized by comprising a receding portion having an inclined surface extending upwardly from a bottom of the collar portion at an acute angle with respect to a direction toward the upper end of the collar portion, the bottom of the collar portion being located at a position not reaching a reference plane when the flat surface of the base portion is the reference plane. a base portion having a flat surface; a cylindrical collar portion extending upwardly from the base portion; and a flared portion flaring radially outwardly from an entire upper end of the collar portion; characterized by comprising a receding portion having an inclined surface extending upwardly from a bottom of the collar portion at an acute angle with respect to a direction toward the upper end of the collar portion, the bottom of the collar portion being located at a position not reaching a reference plane when the flat surface of the base portion is the reference plane.
A method for decoding an audio/video stream, wherein the method is implemented by an audio/video stream receiver (30, 70) and comprises: receiving a stream transition event; receiving an audio/video stream further to the stream transition event; computing a drift between a video presentation time stamp comprised in said audio/video stream and an audio presentation time stamp comprised in said audio/video stream; obtaining a duration of a slow video motion start sequence; initializing a decoder clock with a value of a program clock reference from said audio/video stream; providing said decoder clock to an audio decoder in said audio/video stream receiver; and providing said decoder clock to a video decoder in said audio/video stream receiver, said decoder clock provided to said video decoder being offset with an initial non-zero offset value and with a decreasing offset value until said offset reaches a zero offset value at the end of said duration of said slow video motion start sequence, said initial non-zero offset value being a function of said computed drift and of a frequency of said decoder clock, said decreasing offset value being a function of said initial non-zero offset value and of a number of clock ticks of said decoder clock during said duration of said slow video motion start sequence. receiving a stream transition event; receiving an audio/video stream further to the stream transition event; computing a drift between a video presentation time stamp comprised in said audio/video stream and an audio presentation time stamp comprised in said audio/video stream; obtaining a duration of a slow video motion start sequence; initializing a decoder clock with a value of a program clock reference from said audio/video stream; providing said decoder clock to an audio decoder in said audio/video stream receiver; and providing said decoder clock to a video decoder in said audio/video stream receiver, said decoder clock provided to said video decoder being offset with an initial non-zero offset value and with a decreasing offset value until said offset reaches a zero offset value at the end of said duration of said slow video motion start sequence, said initial non-zero offset value being a function of said computed drift and of a frequency of said decoder clock, said decreasing offset value being a function of said initial non-zero offset value and of a number of clock ticks of said decoder clock during said duration of said slow video motion start sequence.
A wireless electronic device, comprising: a ground plane; a cellular antenna (250; 810, 820); a millimeter wave, mmW, antenna array (410; 910) coupled to a surface of a radiating element of the cellular antenna (250; 810, 820), the radiating element of the cellular antenna (250; 810, 820) being a radiating element for signals transmitted or received by the cellular antenna (250; 810, 820); an mmW circuit attached to the surface of the cellular antenna (250; 810, 820) and coupled to the mmW antenna array (410; 910), the mmW circuit (420; 920) comprising circuit logic for feeding signals to mmW antennas (412; 912) of the mmW antenna array (410; 920); and a grounding element (450; 950) extending between the ground plane and the cellular antenna (250; 810, 820), wherein the grounding element (450; 950) further comprises a power trace to provide power from circuitry on the ground plane to the mmW circuit. a ground plane; a cellular antenna (250; 810, 820); a millimeter wave, mmW, antenna array (410; 910) coupled to a surface of a radiating element of the cellular antenna (250; 810, 820), the radiating element of the cellular antenna (250; 810, 820) being a radiating element for signals transmitted or received by the cellular antenna (250; 810, 820); an mmW circuit attached to the surface of the cellular antenna (250; 810, 820) and coupled to the mmW antenna array (410; 910), the mmW circuit (420; 920) comprising circuit logic for feeding signals to mmW antennas (412; 912) of the mmW antenna array (410; 920); and a grounding element (450; 950) extending between the ground plane and the cellular antenna (250; 810, 820), wherein the grounding element (450; 950) further comprises a power trace to provide power from circuitry on the ground plane to the mmW circuit.
Method for defining an aspherical lens with a given optical axis (x), of the type comprising an entry surface able to receive a light flow issuing from a light source disposed at the focus of the lens on the optical axis (x) and an exit surface from which the rays of the light flow that have passed through the lens emerge, said exit surface bring obtained after revolution of a generatrix curve about an optical axis (x); said generatrix curve being calculated so as to orient the rays emerging from said exit surface in a direction parallel to the optical axis (x), characterised in that it consists of constructing the evolutive entry surface from a substantially planar zone of the entry surface, centred around the midplane of the lens, and then progressively causing said planar zone of the entry surface to evolve towards a cylindrical form for each radial section of the lens, until a cylindrical profile is obtained at the edge of the lens.
A turbofan gas turbine engine comprising a low pressure spool including a fan rotor, a low pressure turbine rotor, a low pressure drive shaft extending along an axis and rotationally coupling the fan rotor to receive driven rotation about the axis from the low pressure turbine rotor, and a low pressure motor-generator (38, 1038) mounted on the low pressure drive shaft (32, 1032) and adapted for selective operation between a generation mode to generate electric power from driven rotation of the low pressure turbine rotor and a drive mode to electrically drive rotation of the low pressure drive shaft (32, 1032), a high pressure spool including a compressor rotor, a high pressure turbine rotor, a high pressure drive shaft extending along the axis and rotationally coupling the compressor rotor to receive driven rotation about the axis from the high pressure turbine rotor, and an high pressure motor-generator adapted for selective operation between a generation mode to generate electric power from driven rotation of the high pressure turbine rotor and a drive mode to electrically drive rotation of the high pressure drive shaft, a power control module electrically connected to each of the low pressure motor- generator (38, 1038) and the high pressure motor-generator and configured to determine operational conditions of the engine and to selectively operate each of the low pressure motor-generator (38, 1038) and the high pressure motor-generator in either of the generation mode and the drive mode based on the determined operational conditions of the engine, and wherein in response to determination that the operational conditions are high demand operational conditions, the power control module is configured to operate the low pressure motor-generator (38, 1038) in the generation mode and to operate the high pressure motor-generator in the drive mode to assist the rotation of the high pressure drive shaft, characterized by an energy storage device electrically connected to the power control module to selectively communicate electric power with the power control module, wherein the power control module is configured to direct electric power from the energy storage device to the low pressure motor-generator (38, 1038), wherein in response to determination that the operational conditions include loss of engine power including an operational shut down of the engine, the power control module is configured to selectively operate the low pressure motor-generator (38, 1038) in the drive mode to provide thrust assist.
A cyan toner comprising cyan toner particles comprising at least a binder resin, a colorant, and a wax, wherein: the cyan toner has one or plural heat-absorption peaks in a temperature range of 30 to 200°C in a heat-absorption curve obtained by using a differential scanning calorimeter; a maximal value of a maximum heat-absorption peak temperature is in the range of 65 to 105°C; and the cyan toner in a powder form has a reflectance of 45 to 80% at a wavelength of 500 nm, a reflectance of 5 to 30% at a wavelength of 600 nm, and a brightness L* of 45 to 75, when measured by spectroscopic analysis, wherein the cyan toner particles further comprises a wax dispersion medium, which is a reaction product of a vinyl polymer and polyolefin. the cyan toner has one or plural heat-absorption peaks in a temperature range of 30 to 200°C in a heat-absorption curve obtained by using a differential scanning calorimeter; a maximal value of a maximum heat-absorption peak temperature is in the range of 65 to 105°C; and the cyan toner in a powder form has a reflectance of 45 to 80% at a wavelength of 500 nm, a reflectance of 5 to 30% at a wavelength of 600 nm, and a brightness L* of 45 to 75, when measured by spectroscopic analysis, wherein the cyan toner particles further comprises a wax dispersion medium, which is a reaction product of a vinyl polymer and polyolefin.