mhurhangee/ep-ind-claims huggingface dataset:
A video decoding apparatus for decoding a bit stream including uncompressed data of a video signal, comprising: a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; characterised in further a receiving unit configured to receive a bit indicating whether or not the bit stream includes uncompressed data; an encoding method judgment unit configured to judge whether or not a unit of encoding of the bit stream includes uncompressed data using the bit; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process so as to perform a termination process for the arithmetic decoding process and to maintain the context value previously used in the arithmetic decoding process in case of receiving the bit indicating that the bit stream includes uncompressed data. a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; characterised in further a receiving unit configured to receive a bit indicating whether or not the bit stream includes uncompressed data; an encoding method judgment unit configured to judge whether or not a unit of encoding of the bit stream includes uncompressed data using the bit; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process so as to perform a termination process for the arithmetic decoding process and to maintain the context value previously used in the arithmetic decoding process in case of receiving the bit indicating that the bit stream includes uncompressed data.
An ink circulation apparatus, comprising: an ink tank that accumulates radical polymerization-type UV-curing ink; a supplying flow path that communicates with the ink tank and a supply port of an inkjet head that includes the supply port to which the radical polymerization-type UV-curing ink is supplied, a nozzle that ejects the radical polymerization-type UV-curing ink, and a discharge port from which the radical polymerization-type UV-curing ink that is not ejected from the nozzle is discharged; a supply pump that is provided in the supplying flow path, and supplies the radical polymerization-type UV-curing ink accumulated in the ink tank to the inkjet head; oxygen removing means that is provided in the supplying flow path, and removes oxygen from the radical polymerization-type UV-curing ink to be supplied to the inkjet head; a discharging flow path that communicates with the discharge port of the inkjet head and the ink tank; a collecting pump that is provided in the discharging flow path, and collects the radical polymerization-type UV-curing ink discharged from the discharge port in the ink tank; and characterised by oxygen supplying means that is provided in the discharging flow path, and supplies oxygen to the radical polymerization-type UV-curing ink to be collected in the ink tank. an ink tank that accumulates radical polymerization-type UV-curing ink; a supplying flow path that communicates with the ink tank and a supply port of an inkjet head that includes the supply port to which the radical polymerization-type UV-curing ink is supplied, a nozzle that ejects the radical polymerization-type UV-curing ink, and a discharge port from which the radical polymerization-type UV-curing ink that is not ejected from the nozzle is discharged; the supply port to which the radical polymerization-type UV-curing ink is supplied, a nozzle that ejects the radical polymerization-type UV-curing ink, and a discharge port from which the radical polymerization-type UV-curing ink that is not ejected from the nozzle is discharged; a supply pump that is provided in the supplying flow path, and supplies the radical polymerization-type UV-curing ink accumulated in the ink tank to the inkjet head; oxygen removing means that is provided in the supplying flow path, and removes oxygen from the radical polymerization-type UV-curing ink to be supplied to the inkjet head; a discharging flow path that communicates with the discharge port of the inkjet head and the ink tank; a collecting pump that is provided in the discharging flow path, and collects the radical polymerization-type UV-curing ink discharged from the discharge port in the ink tank; and characterised by oxygen supplying means that is provided in the discharging flow path, and supplies oxygen to the radical polymerization-type UV-curing ink to be collected in the ink tank.
Chain drive (D1, D6) for a chain hoist comprising two link chain strands (S11, S12), the chain drive including two sprockets (R11, R12; R61, R62) which are arranged adjacent on a shaft of the chain drive and rotationally fixed to each other, each sprocket being configured to guide a respective section of a link chain strand having alternately lying and upright links, namely, comprising pockets configured to receive respective lying links and a groove configured to receive upright links and extending along the circumferential direction, characterized in that a first one (R11, R61) of said sprockets has a fixed angular offset relative to a second one (R12, R62) of said sprockets, which offset is smaller than the angular pitch (U 1) between two successive links of the first sprocket. each sprocket being configured to guide a respective section of a link chain strand having alternately lying and upright links, namely, comprising pockets configured to receive respective lying links and a groove configured to receive upright links and extending along the circumferential direction, characterized in that a first one (R11, R61) of said sprockets has a fixed angular offset relative to a second one (R12, R62) of said sprockets, which offset is smaller than the angular pitch (U 1) between two successive links of the first sprocket.
A system for electro-absorption modulation in an integrated circuit, comprising: a waveguide; a photodetector (118, 318) configured with respect to the waveguide for providing a photocurrent signal responsive to an optical signal; an electro-absorption modulator (120, 320) configured with respect to the waveguide for electro-absorption modulation of the optical signal, wherein the electro-absorption modulator (120, 320) is a segmented electro-absorption modulator comprising a segmented anode having a plurality of anode segments (111-1, 111-2) spaced apart from one another alongside a first side of the waveguide, and a segmented cathode having a plurality of cathode segments (110-1, 110-2) spaced apart from one another alongside a second side of the waveguide corresponding to the plurality of anode segments (111-1, 111-2), wherein the photodetector is disposed proximate to the electro-absorption modulator between pairs of anode/cathode segments; the photodetector (118, 318) and the electro-absorption modulator (120, 320) being formed of same materials; and an integrated heating element located alongside and spaced apart from both the photodetector (118, 318) and the electro-absorption modulator (120, 320), the integrated heating element configured for controllably heating the photodetector (118, 318) and the electro-absorption modulator (120, 320) based on the photocurrent signal from the photodetector (118, 318). a waveguide; a photodetector (118, 318) configured with respect to the waveguide for providing a photocurrent signal responsive to an optical signal; an electro-absorption modulator (120, 320) configured with respect to the waveguide for electro-absorption modulation of the optical signal, wherein the electro-absorption modulator (120, 320) is a segmented electro-absorption modulator comprising a segmented anode having a plurality of anode segments (111-1, 111-2) spaced apart from one another alongside a first side of the waveguide, and a segmented cathode having a plurality of cathode segments (110-1, 110-2) spaced apart from one another alongside a second side of the waveguide corresponding to the plurality of anode segments (111-1, 111-2), wherein the photodetector is disposed proximate to the electro-absorption modulator between pairs of anode/cathode segments; the photodetector (118, 318) and the electro-absorption modulator (120, 320) being formed of same materials; and an integrated heating element located alongside and spaced apart from both the photodetector (118, 318) and the electro-absorption modulator (120, 320), the integrated heating element configured for controllably heating the photodetector (118, 318) and the electro-absorption modulator (120, 320) based on the photocurrent signal from the photodetector (118, 318).
An access control method, comprising: determining, by a network-side network element, to implement access control for a user equipment with coverage enhancement; and transmitting, by the network-side network element, access control information associated with a plurality of Long-Term Evolution, LTE, enhanced Machine Type Communication, eMTC, coverage enhancement levels, wherein the access control information is configured to indicate to the user equipment a condition for initiating random access to the network-side network element, wherein the random access is based on a coverage enhancement level from the plurality of coverage enhancement levels allowed for the user equipment for the random access, and wherein the access control information indicates that the user equipment that initiates a high rate service is allowed to access to the network-side network element without coverage enhancement, wherein the access control information indicates that the user equipment that initiates a common rate stream service is allowed to access to the network-side network element with no coverage enhancement, coverage enhancement level 0, or coverage enhancement level 1, and wherein the access control information indicates that the user equipment that initiates a low rate stream service is allowed to access to the network-side network element with the no coverage enhancement, the coverage enhancement level 0, the coverage enhancement level 1, coverage enhancement level 2, or coverage enhancement level 3. determining, by a network-side network element, to implement access control for a user equipment with coverage enhancement; and transmitting, by the network-side network element, access control information associated with a plurality of Long-Term Evolution, LTE, enhanced Machine Type Communication, eMTC, coverage enhancement levels, wherein the access control information is configured to indicate to the user equipment a condition for initiating random access to the network-side network element, wherein the random access is based on a coverage enhancement level from the plurality of coverage enhancement levels allowed for the user equipment for the random access, and wherein the access control information indicates that the user equipment that initiates a high rate service is allowed to access to the network-side network element without coverage enhancement, wherein the access control information indicates that the user equipment that initiates a common rate stream service is allowed to access to the network-side network element with no coverage enhancement, coverage enhancement level 0, or coverage enhancement level 1, and wherein the access control information indicates that the user equipment that initiates a low rate stream service is allowed to access to the network-side network element with the no coverage enhancement, the coverage enhancement level 0, the coverage enhancement level 1, coverage enhancement level 2, or coverage enhancement level 3.
A spectacle frame comprising at least one pin and a branch made from at least one bent metal part and connected by a hinge including a joint body defining a pivot axis, the joint body comprising at least two annular grooves coaxial with the pivot axis and the branch having a portion shaped as an open loop, characterised in that the pin has a portion shaped as an open loop and in that each portion shaped as an open loop (10, 11) can be resiliently clipped into one of the grooves in a direction transverse to the pivot axis so as to ensure resilient retention of the pin and the branch on the joint body and to allow pivoting of the branch relative to the pin.
An apparatus for analysis of metals, wherein the apparatus comprises: a molding cavity for receiving a sample of a molten metal; a gating system for allowing the molten metal to be poured; a recess slot extending between the gating system and the molding cavity for allowing the molten metal to flow from the gating system to the molding cavity; a vent, extending from the molding cavity, for allowing gases to escape from the apparatus when the molten metal is poured; at least one chill plate, adjacent to the molding cavity, for enabling cooling and solidification of the sample of the molten metal; and a longitudinal slot, extending from the molding cavity, in which a sensor element is introduced into the bottom of the molding cavity, wherein the sensor element is a thermocouple wire that is arranged to monitor a cooling curve of the molten metal, while the molten metal solidifies, characterized in that the apparatus comprises mold halves (101, 103) that, when put together, provide the recess slot in a periphery of the molding cavity, wherein the recess slot extends along the periphery of the molding cavity from the gating system into the molding cavity up to the vent, wherein the sensor element is introduced in the bottom of the molding cavity such that it is pre-heatable by molten metal inserted into the molding cavity, wherein the gating system ends at the height of the bottom of the molding cavity to allow the molten metal to be filled in the molding cavity in a bottom up direction. a molding cavity for receiving a sample of a molten metal; a gating system for allowing the molten metal to be poured; a recess slot extending between the gating system and the molding cavity for allowing the molten metal to flow from the gating system to the molding cavity; a vent, extending from the molding cavity, for allowing gases to escape from the apparatus when the molten metal is poured; at least one chill plate, adjacent to the molding cavity, for enabling cooling and solidification of the sample of the molten metal; and a longitudinal slot, extending from the molding cavity, in which a sensor element is introduced into the bottom of the molding cavity, wherein the sensor element is a thermocouple wire that is arranged to monitor a cooling curve of the molten metal, while the molten metal solidifies, characterized in that the apparatus comprises mold halves (101, 103) that, when put together, provide the recess slot in a periphery of the molding cavity, wherein the recess slot extends along the periphery of the molding cavity from the gating system into the molding cavity up to the vent, wherein the sensor element is introduced in the bottom of the molding cavity such that it is pre-heatable by molten metal inserted into the molding cavity, wherein the gating system ends at the height of the bottom of the molding cavity to allow the molten metal to be filled in the molding cavity in a bottom up direction.
A secondary battery comprising: an electrode body including a first electrode plate, and a second electrode plate with a different polarity from the first electrode plate; and a first electrode current collector electrically connected to the first electrode plate; the first electrode plate including a first electrode core and a first electrode active material layer on the first electrode core, the first electrode core being made of aluminum or an aluminum alloy, the first electrode current collector being made of aluminum or an aluminum alloy, the electrode body including a multilayer of the first electrode core where the first electrode cores are stacked, the first electrode current collector being joined to the multilayer of the first electrode core by ultrasonic welding in a joint area, the joint area at which the multilayers of the first electrode core is joined to the first electrode current collector by ultrasonic welding, including a plurality of core recesses, a core projection being formed between the core recesses with the first electrode core flexed in a convex shape, a gap in an arc shape being formed between the adjacent pair of layers of the first electrode core forming the core projection, the gap having a length decreasing from an apex to a bottom of the core projection. an electrode body including a first electrode plate, and a second electrode plate with a different polarity from the first electrode plate; and a first electrode current collector electrically connected to the first electrode plate; the first electrode plate including a first electrode core and a first electrode active material layer on the first electrode core, the first electrode core being made of aluminum or an aluminum alloy, the first electrode current collector being made of aluminum or an aluminum alloy, the electrode body including a multilayer of the first electrode core where the first electrode cores are stacked, the first electrode current collector being joined to the multilayer of the first electrode core by ultrasonic welding in a joint area, the joint area at which the multilayers of the first electrode core is joined to the first electrode current collector by ultrasonic welding, including a plurality of core recesses, a core projection being formed between the core recesses with the first electrode core flexed in a convex shape, a gap in an arc shape being formed between the adjacent pair of layers of the first electrode core forming the core projection, the gap having a length decreasing from an apex to a bottom of the core projection.
Motorized assistance system characterized in that it comprises a tibial orthosis including: - a tibial fastening (configured to cover a users's shin; - an ankle fastening articulated at the axis of the ankle with plantar fastening; - a processor that receives an activation signal; - a power supply; and an active part selected from: - a support, said support supporting a motorized winch, connected to a strap whose free end configured to be fixed to a foot so that the winch takes up the strap when said foot is not resting on the ground, all carried in the tibial fastening; and - a femur orthosis formed by a thigh attachment, configured to be located above the knee and in front of the patient, a lower femur actuator attached by means of a strap to the tibial fastening, and an upper femur actuator fixed by another strap to a harness or belt, both femur actuators (11, 12) being coordinated to take up or release belt in parallel when said foot is not resting on the ground. - a tibial fastening (configured to cover a users's shin; - an ankle fastening articulated at the axis of the ankle with plantar fastening; - a processor that receives an activation signal; - a power supply; - a support, said support supporting a motorized winch, connected to a strap whose free end configured to be fixed to a foot so that the winch takes up the strap when said foot is not resting on the ground, all carried in the tibial fastening; and - a femur orthosis formed by a thigh attachment, configured to be located above the knee and in front of the patient, a lower femur actuator attached by means of a strap to the tibial fastening, and an upper femur actuator fixed by another strap to a harness or belt, both femur actuators (11, 12) being coordinated to take up or release belt in parallel when said foot is not resting on the ground.
A method for controlling the voltage and current supplied to an AC motor, the AC motor interconnected to an AC input source by a thyristor switch (22a, 22b, 22c), the method comprising the steps of: initially firing the thyristor switch (22a, 22b, 22c) at a predetermined alpha firing angle after an initial occurrence of zero supply voltage at a motor terminal of the AC motor and providing the predetermined alpha firing angle as an initial alpha firing angle (α i -1); calculating a new alpha firing angle (α i) which is dependant upon the initial alpha firing angle (α i -1); firing the thyristor switch (22a, 22b, 22c) at the new alpha firing angle (α i) after a subsequent occurrence of zero supply voltage at a motor terminal (13a, 13b, 13c) of the AC motor; and providing the new alpha firing angle (α i) as the initial alpha firing angle (α i -1); characterized in that the new alpha firing angle is calculated according to the expression: α i = α i − 1 + k * I − I lim wherein α i is the new alpha firing angle; α i -1 is the initial alpha firing angle; k is a proportional gain; I is an integral of the motor current over a conduction time interval; and I lim is a user selected pre-set current limit. initially firing the thyristor switch (22a, 22b, 22c) at a predetermined alpha firing angle after an initial occurrence of zero supply voltage at a motor terminal of the AC motor and providing the predetermined alpha firing angle as an initial alpha firing angle (α i -1); calculating a new alpha firing angle (α i) which is dependant upon the initial alpha firing angle (α i -1); firing the thyristor switch (22a, 22b, 22c) at the new alpha firing angle (α i) after a subsequent occurrence of zero supply voltage at a motor terminal (13a, 13b, 13c) of the AC motor; and providing the new alpha firing angle (α i) as the initial alpha firing angle (α i -1); characterized in that the new alpha firing angle is calculated according to the expression: α i = α i − 1 + k * I − I lim wherein α i is the new alpha firing angle; α i -1 is the initial alpha firing angle; k is a proportional gain; I is an integral of the motor current over a conduction time interval; and I lim is a user selected pre-set current limit.
A compound of general formula 1, wherein X is independently selected from group consisting of: wherein R 1 is independently selected from group consisting of: wherein R 2 is independently selected from group consisting of: and wherein is independently selected from groups referred to as hydrogen, -OH and -OCH 3 groups. X is independently selected from group consisting of: wherein R 1 is independently selected from group consisting of: wherein R 2 is independently selected from group consisting of: and wherein is independently selected from groups referred to as hydrogen, -OH and -OCH 3 groups.