mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, at a first node, comprising: a transceiver, operative to transmit and/or receive a radio signal; circuitry, operative to - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; characterized in that the first node is operating at one of different transmission modes; the different transmission modes include: - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and the circuitry is operative to measure (S901') the channel busy ratios for different types of channel resource pools of the radio signal respectively with respect to the different transmission modes. a transceiver, operative to transmit and/or receive a radio signal; circuitry, operative to - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; - measure (S901, S901', S901") one or more channel busy ratios for channel resource pools of the radio signal, wherein the one or more channel busy ratios include a channel busy ratio for a data channel resource pool and a channel busy ratio for a control channel resource pool, and - perform (S902, S902', S902") congestion control on the channel resource pools based on the measured (S901, S901', S901") one or more channel busy ratios; characterized in that the first node is operating at one of different transmission modes; the different transmission modes include: - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and - a first transmission mode, in which transmission is based on base station scheduling, and - a second transmission mode, which is a user equipment autonomous resource allocation mode; and the circuitry is operative to measure (S901') the channel busy ratios for different types of channel resource pools of the radio signal respectively with respect to the different transmission modes.
A power supply controller system (100, 100A) comprising: a power supply portion; a first arithmetic processing portion and a second arithmetic processing portion configured to receive power from the power supply portion and operate; and a first monitoring circuit and a second monitoring circuit configured to monitor an integrity of power supply of the power supply portion, the power supply controller system (100, 100A) being characterized in that the first monitoring circuit includes a first watchdog timer periodically reset by the first arithmetic processing portion and instructs the second arithmetic processing portion to stop an operation thereof when the first watchdog timer is not reset for a first predetermined period of time, the second monitoring circuit includes a second watchdog timer periodically reset by the second arithmetic processing portion and instructs the first arithmetic processing portion to stop an operation thereof when the second watchdog timer is not reset for a second predetermined period of time, and the first monitoring circuit further includes a third watchdog timer periodically reset by any one of the first arithmetic processing portion and the second arithmetic processing portion and instructs the other arithmetic processing portion to stop an operation thereof when the third watchdog timer is not reset for a third predetermined period of time. a power supply portion; a first arithmetic processing portion and a second arithmetic processing portion configured to receive power from the power supply portion and operate; and a first monitoring circuit and a second monitoring circuit configured to monitor an integrity of power supply of the power supply portion, the power supply controller system (100, 100A) being characterized in that the first monitoring circuit includes a first watchdog timer periodically reset by the first arithmetic processing portion and instructs the second arithmetic processing portion to stop an operation thereof when the first watchdog timer is not reset for a first predetermined period of time, the second monitoring circuit includes a second watchdog timer periodically reset by the second arithmetic processing portion and instructs the first arithmetic processing portion to stop an operation thereof when the second watchdog timer is not reset for a second predetermined period of time, and the first monitoring circuit further includes a third watchdog timer periodically reset by any one of the first arithmetic processing portion and the second arithmetic processing portion and instructs the other arithmetic processing portion to stop an operation thereof when the third watchdog timer is not reset for a third predetermined period of time.
An automotive light comprising a substantially basin-shaped rear body structured so to be fixed onto the vehicle body; a front lenticular hemi-shell which is arranged to close the mouth of the rear body, and is provided with at least one strip-shaped, transparent or semi-transparent portion; and at least a first lighting assembly which is structured so as to emit light when electricity powered, and is arranged within the rear body so as to backlight the strip-shaped, transparent or semitransparent portion of the front lenticular hemi-shell; the lighting assembly comprising at least one light-guide plate made of photoconductive material and which extends inside the rear body close up to the front lenticular hemi-shell while arranging its front side edge faced to the strip-shaped transparent or semi-transparent portion of the front lenticular hemi-shell, and a corresponding linear-extending light source which is arranged inside the rear body and is structured so as to direct the emitted light towards the inside of said light-guide plate through the rear side edge of the same light-guide plate; the rear side edge of said at least one light-guide plate having a serrated profile with teeth substantially triangular in shape; said linear-extending light source comprising a row of light emitting diodes which face the rear side edge spaced beside to one another; the automotive light being characterised in that each light emitting diode faces a respective tooth of the rear side edge, so as to direct/project the emitted light towards the inside of the light-guide plate through a specific light-entry edge of the tooth; and in that said lighting assembly additionally comprises a series of optical collimators each of which is interposed between a diode of the light source and the corresponding tooth of the rear side edge of the light-guide plate, and is structured so as to collimate the light rays (r) emitted by the diode in a first direction (d 1) which is locally substantially parallel to a collimation axis inclined with respect to the light-entry edge of the tooth by an angle (δ) lower than 90° and greater than the critical angle associated to the light-guide plate.
Body care apparatus and/or body treatment apparatus, in particular a shaver apparatus, a beard cutter, a haircutter, an epilator apparatus, a hair-removal apparatus, a pigmenting apparatus, a tattoo apparatus, a pricking apparatus, an electric toothbrush, or the like, with at least one electric linear repetitive pulsed drive comprising - a magnetic circuit with an air gap and an electric coil, - a magnetic shape-memory adjustment element which is arranged in the air gap of the magnetic circuit, - a reset unit - and a control electronics unit, wherein the electric linear repetitive pulsed drive emits its energy in discrete-time fashion, bundled in pulses with a repetition frequency, wherein the repetition frequency of the electric linear repetitive pulsed drive is adjustable for the respective application during manufacture or is manually adjustable by the user to optimize the respective, also individual, application and wherein if the repetition frequency is changed, the energy emitted per pulse remains constant. - a magnetic circuit with an air gap and an electric coil, - a magnetic shape-memory adjustment element which is arranged in the air gap of the magnetic circuit, - a reset unit - and a control electronics unit, wherein the electric linear repetitive pulsed drive emits its energy in discrete-time fashion, bundled in pulses with a repetition frequency, wherein the repetition frequency of the electric linear repetitive pulsed drive is adjustable for the respective application during manufacture or is manually adjustable by the user to optimize the respective, also individual, application and wherein if the repetition frequency is changed, the energy emitted per pulse remains constant.
Measurement insert referred to as a cartridge for a meter measuring the thermal energy of a fluid, in particular water, intended to be mounted in the so-called insertion direction into a reservoir having a fluid inlet pipe and a fluid outlet pipe (1 B), said insert having a housing intended to be joined to said reservoir and delimiting a flow measurement chamber connected to a calculator containing an electronic calculation and display unit, the insert containing a fluid temperature measurement probe having a measurement end, characterised in that said probe is disposed in such a way that the measurement end thereof is intended to be introduced into at least one of said pipes of the reservoir, in order to be in direct contact with the fluid circulating therein.
A horology mechanism (20; 60) comprising a rotary element (22; 22A) and a magnetic device for guiding this rotary element in rotation, this magnetic device being arranged so as to exert a radial magnetic return force (F R) on the rotary element when a central axis of this rotary element undergoes a radial movement relative to an axis of rotation which is predefined for the rotary element in the mechanism; the magnetic device comprising a pair of annular magnets in which the first annular magnet (32; 62; 62; 68) is carried by the rotary element, so that its centre remains coincident with said central axis, and the second annular magnet (34; 64; 66; 66) is carried by a structure of the mechanism so that its centre remains coincident with said axis of rotation; characterised in that, when the central axis of the rotary element is coincident with the axis of rotation, the first annular magnet and the second annular magnet extend in general planes that are parallel and orthogonal to the rotational axis, with an intermediate space between them, and the second annular magnet is at least partially axially superimposed with the first annular magnet, the first and second annular magnets being arranged in magnetic attraction so as to impart on one another a first axial magnetic force and, substantially as soon as the central axis of the rotary element deviates radially from the axis of rotation, a first radial magnetic force (F R).
A gas turbine engine, comprising: a thermal management system that includes a first fluid circuit circulating a first fluid (81, 83) and a second fluid circuit circulating a second fluid that manage heat generated in at least a portion of the gas turbine engine; a heat exchanger incorporated into each of said first fluid circuit and said second fluid circuit; a further heat exchanger incorporated into said first fluid circuit; a valve that controls a first amount of the first fluid that is communicated to said heat exchanger and a second amount of the first fluid that is communicated to said further heat exchanger, comprising a first sensor that senses a first characteristic of the second fluid and a second sensor that senses a second characteristic: of the second fluid and a controller configured to control a positioning of said valve, wherein said first amount of said first fluid communicated to said heat exchanger is based on the first characteristic of the second fluid and said second amount of said first fluid communicated to said further heat exchanger is based on the second characteristic of said second fluid. a thermal management system that includes a first fluid circuit circulating a first fluid (81, 83) and a second fluid circuit circulating a second fluid that manage heat generated in at least a portion of the gas turbine engine; a heat exchanger incorporated into each of said first fluid circuit and said second fluid circuit; a further heat exchanger incorporated into said first fluid circuit; a valve that controls a first amount of the first fluid that is communicated to said heat exchanger and a second amount of the first fluid that is communicated to said further heat exchanger, comprising a first sensor that senses a first characteristic of the second fluid and a second sensor that senses a second characteristic: of the second fluid and a controller configured to control a positioning of said valve, wherein said first amount of said first fluid communicated to said heat exchanger is based on the first characteristic of the second fluid and said second amount of said first fluid communicated to said further heat exchanger is based on the second characteristic of said second fluid.
A frame body used for a cell of a redox flow battery, comprising: an opening formed inside the frame body; a manifold through which an electrolyte circulates; and a slit connected between the opening and the manifold, the slit forming a channel for the electrolyte between the opening and the manifold, the slit having a pair of sidewalls which are oppositely disposed in a cross section orthogonal to a direction in which the electrolyte circulates, the slit having, in a portion along a depthwise direction of the slit, a width narrowing portion at which a space between the sidewalls narrows along the depthwise direction of the slit. an opening formed inside the frame body; a manifold through which an electrolyte circulates; and a slit connected between the opening and the manifold, the slit forming a channel for the electrolyte between the opening and the manifold, the slit having a pair of sidewalls which are oppositely disposed in a cross section orthogonal to a direction in which the electrolyte circulates, the slit having, in a portion along a depthwise direction of the slit, a width narrowing portion at which a space between the sidewalls narrows along the depthwise direction of the slit.
A method of detecting a WASF2:FGR gene fusion in a biological sample, said method comprising the steps of: (a) contacting a biological sample from a mammal with an oligonucleotide that hybridizes to the fusion junction of the WASF2:FGR gene fusion; and (b) detecting binding between the WASF2:FGR gene fusion and the oligonucleotide. (a) contacting a biological sample from a mammal with an oligonucleotide that hybridizes to the fusion junction of the WASF2:FGR gene fusion; and (b) detecting binding between the WASF2:FGR gene fusion and the oligonucleotide.
An optical bench for supporting a reflex sight in a weapon-mounted sight assembly, the optical bench comprising: a reflex sight mounting portion having a first surface for receiving a reticle light source; characterized in that the optical bench comprises a first lens mounting arm spaced apart from a second lens mounting arm, the first and second lens mounting arms attached to the reflex sight mounting portion, and the first and second lens mounting arms configured to engage opposite sides of a lens assembly to support the lens assembly in an optical path of the reticle light source, the first and second lens mounting arms being sufficiently resilient to accommodate thermal expansion and contraction of the lens assembly; wherein each of the first and second lens mounting arms includes a horizontal arm and two upstanding arms (186a, 186b) defining a split lens holder extending from a distal end of the arm, the arms (186a, 186b) are configured to clamp a side portion or protrusion on opposite sides of the lens assembly, each lens mounting arm being resilient with multiple degrees of movement including flexion of the arms, torsion of the arms and flexion of the upstanding arms (186a, 186b) to accommodate thermal expansion and contraction of the lens assembly. a reflex sight mounting portion having a first surface for receiving a reticle light source; characterized in that the optical bench comprises a first lens mounting arm spaced apart from a second lens mounting arm, the first and second lens mounting arms attached to the reflex sight mounting portion, and the first and second lens mounting arms configured to engage opposite sides of a lens assembly to support the lens assembly in an optical path of the reticle light source, the first and second lens mounting arms being sufficiently resilient to accommodate thermal expansion and contraction of the lens assembly; wherein each of the first and second lens mounting arms includes a horizontal arm and two upstanding arms (186a, 186b) defining a split lens holder extending from a distal end of the arm, the arms (186a, 186b) are configured to clamp a side portion or protrusion on opposite sides of the lens assembly, each lens mounting arm being resilient with multiple degrees of movement including flexion of the arms, torsion of the arms and flexion of the upstanding arms (186a, 186b) to accommodate thermal expansion and contraction of the lens assembly.
A method for decoding a picture from a bitstream, the method comprising: decoding a tile partition structure from one or more syntax elements in the bitstream; determining a number of tiles N in the picture; decoding a number of partitions in the picture, wherein each partition comprises an integer number of tiles; deriving a size and location for a current partition, wherein deriving the size and location for the current partition comprises: deriving the size for the current partition from a syntax element representing a width of the current partition in number of tiles and a syntax element representing a height of the current partition in number of tiles, and deriving a top-left position of the current partition as a location of a first tile in raster scan order that is not included in one or more previously derived partitions; using the derived size and location to decode the picture. decoding a tile partition structure from one or more syntax elements in the bitstream; determining a number of tiles N in the picture; decoding a number of partitions in the picture, wherein each partition comprises an integer number of tiles; deriving a size and location for a current partition, wherein deriving the size and location for the current partition comprises: deriving the size for the current partition from a syntax element representing a width of the current partition in number of tiles and a syntax element representing a height of the current partition in number of tiles, and deriving a top-left position of the current partition as a location of a first tile in raster scan order that is not included in one or more previously derived partitions; deriving the size for the current partition from a syntax element representing a width of the current partition in number of tiles and a syntax element representing a height of the current partition in number of tiles, and deriving a top-left position of the current partition as a location of a first tile in raster scan order that is not included in one or more previously derived partitions; using the derived size and location to decode the picture.
Device for limiting the displacement of at least one of two or more drives (18, 20) of a shading device which has the two or more drives (18, 20), of which at least one drives a shading device, wherein the two drives (18, 20) drive elements or degrees of freedom of elements, the displacements of which overlap, and means for detecting and limiting the displacement of respectively at least one of the drives (18, 20) are provided which prevent an adjustment of an element into a position in which a respective other element is already located, characterised in that at least one of the drives (18, 20) has an internal position detection device (24, 26) and a direct communication connection between the drives (18, 20) is provided which transmits wirelessly the detected position to the respectively other drive (18, 20), wherein the communication connection is constructed wirelessly as a radio or infrared connection or as a data connection via power supply lines which are present anyway (Powerline Communication PLC), wherein an evaluation and control unit (10, 11) assigned to this drive (18, 20) limits the displacement of this drive (18, 20) such that a collision with the respectively other element is prevented.
A method for producing (meth)acrylic acid, comprising the steps of crystallizing (meth)acrylic acid and melting the (meth)acrylic acid crystal obtained in the crystallization step; wherein two or more crystallizers are employed; when both of the crystallization step and the melting step are concurrently carried out in separate crystallizers, a cooling medium is supplied to a crystallizer for carrying out the crystallization step to crystallize (meth)acrylic acid and a heating medium is supplied to another crystallizer for carrying out the melting step to melt the (meth)acrylic acid crystal, wherein both the cooling medium as well as the heating medium are supplied from a refrigerator; and when only the crystallization step is carried out before the melting step is carried out, the temperature of a heating medium to be returned to the refrigerator is previously decreased to be lower than a set temperature of the heating medium for the melting step before the crystallization step is carried out.
A device suitable for the subsequent positioning of a pterygoid dental implant, comprising: a. a handle extending along a longitudinal axis and having a proximal and a distal end; b. and a bifurcated abutment means at the distal end and at the proximal end of the handle, each comprising two legs (3, 4), characterized in that a first of the bifurcated abutment means is adapted to embrace the left maxilla at the processus pyramidalis ossis palatini and/or the processus pterygoideus ossis sphenoidalis and/or the tuberosity of the left maxilla, and whereby said abutment means comprises an edge between the legs (3, 4) of the abutment means, wich edge has a profile adapted to fit over a relief in bone structure at sutura pterygomaxillaris of the left maxilla, and that a second of the bifurcated abutment means is adapted to embrace the right maxilla at the processus pyramidalis ossis palatini and/or the processus pterygoideus ossis sphenoidalis and/or the tuberosity of the right maxilla, and whereby said abutment means comprises an edge between the legs (3, 4) of the abutment means which edge has a profile adapted to fit over a relief in bone structure at sutura pterygomaxillaris of the right maxilla. a. a handle extending along a longitudinal axis and having a proximal and a distal end; b. and a bifurcated abutment means at the distal end and at the proximal end of the handle, each comprising two legs (3, 4),