mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of user-level scheduling of concurrent threads on a computing system having an operating system (140, 540), OS, in a multi-sequencer system, comprising: executing a user-generated thread primitive; generating, by a first sequencer (503,770,870) being computationally asymmetric with respect to a functional metric to a second sequencer (504,760,860), the first and second sequencers being cores of a multi-core processor package, the first sequencer visible to the OS and the second sequencer invisible to the OS, responsive to the thread primitive, a work descriptor to describe a thread including a beginning address for execution of the thread and a stack descriptor; causing the work descriptor to be stored in a queue system, wherein the queue system includes a first queue associated with a first sequencer type of the first sequencer and a second queue associated with a second sequencer type of the second sequencer; and scheduling execution of the thread on the second sequencer using a distributed user-level scheduler invoked on the first and second sequencers. executing a user-generated thread primitive; generating, by a first sequencer (503,770,870) being computationally asymmetric with respect to a functional metric to a second sequencer (504,760,860), the first and second sequencers being cores of a multi-core processor package, the first sequencer visible to the OS and the second sequencer invisible to the OS, responsive to the thread primitive, a work descriptor to describe a thread including a beginning address for execution of the thread and a stack descriptor; causing the work descriptor to be stored in a queue system, wherein the queue system includes a first queue associated with a first sequencer type of the first sequencer and a second queue associated with a second sequencer type of the second sequencer; and scheduling execution of the thread on the second sequencer using a distributed user-level scheduler invoked on the first and second sequencers.
A high-power semiconductor module, the module comprising: a high-power semiconductor device mounted on the module and comprising at least two electrical connections (14a, 14b); and a short-circuit device mounted on the module and adapted to generate a persistent electrically conducting path between the two electrical connections (14a, 14b) upon receiving a trigger signal upon a failure of the semiconductor module, wherein the high-power semiconductor device comprises a high-power semiconductor and the short-circuit device comprises a short-circuit semiconductor, characterized in that the short-circuit semiconductor provides a sacrificial region, which is configured for being electrically destroyed by a current pulse triggered by the trigger signal, and the high-power semiconductor and the short-circuit semiconductor are arranged in a common substrate. a high-power semiconductor device mounted on the module and comprising at least two electrical connections (14a, 14b); and a short-circuit device mounted on the module and adapted to generate a persistent electrically conducting path between the two electrical connections (14a, 14b) upon receiving a trigger signal upon a failure of the semiconductor module, wherein the high-power semiconductor device comprises a high-power semiconductor and the short-circuit device comprises a short-circuit semiconductor, characterized in that the short-circuit semiconductor provides a sacrificial region, which is configured for being electrically destroyed by a current pulse triggered by the trigger signal, and the high-power semiconductor and the short-circuit semiconductor are arranged in a common substrate.
A circuit for a motor comprising: at least two phase windings (2504, 2506) forming one half of motor phase windings of the circuit and at least two other phase windings (2508, 2510) forming another half of the motor phase windings of the circuit; a direct current power supply to receive alternating current power transferred from one or more of the motor phase windings and convert the AC power to DC power; a first stage power switch circuit comprising at least one power switch outside of a current path between the motor phase windings and the DC power supply and electrically connected between the at least two phase windings on the one half of the motor phase windings of the circuit and between the at least two other phase windings on the other half of the motor phase windings of the circuit; a second stage power switch circuit comprising at least one other power switch outside of the current path between the motor phase windings and the DC power supply and electrically connected between the one half of the motor phase windings of the circuit and the other half of the motor phase windings of the circuit, the at least one other power switch to receive AC power from the motor phase windings; and at least one non-collapsing DC power supply component (2534, 2536) connected to the DC power supply to prevent the DC power supply from collapsing when the at least one power switch or the at least one other power switch is on. at least two phase windings (2504, 2506) forming one half of motor phase windings of the circuit and at least two other phase windings (2508, 2510) forming another half of the motor phase windings of the circuit; a direct current power supply to receive alternating current power transferred from one or more of the motor phase windings and convert the AC power to DC power; a first stage power switch circuit comprising at least one power switch outside of a current path between the motor phase windings and the DC power supply and electrically connected between the at least two phase windings on the one half of the motor phase windings of the circuit and between the at least two other phase windings on the other half of the motor phase windings of the circuit; a second stage power switch circuit comprising at least one other power switch outside of the current path between the motor phase windings and the DC power supply and electrically connected between the one half of the motor phase windings of the circuit and the other half of the motor phase windings of the circuit, the at least one other power switch to receive AC power from the motor phase windings; and at least one non-collapsing DC power supply component (2534, 2536) connected to the DC power supply to prevent the DC power supply from collapsing when the at least one power switch or the at least one other power switch is on.
Assembly for making a lamp incorporated in a plasterboard wall or in a wall made of fiber-cement sheets or in a wall composed of materials for on-site construction to be clad, comprising: - a lamp body that houses a light source; - a formwork defining a rebated front wall suitable to be attached to the inner side of a plasterboard panel, a fiber-cement sheet or wall cladding, at the rear a light-emitting cavity forming a housing seat for the lamp body and in front a light-emitting opening in the front wall, said light-emitting opening being delimited by a peripheral frame extending frontally and perpendicularly from the front wall in such a way that the front edge of said peripheral frame is flush with the outer side of the panel, sheet or wall cladding, the light-emitting cavity being delimited below by an inclined plane towards which the light generated by the light source is projected and which ends at the light-emitting opening, the formwork being further equipped with retaining means cooperating with said inclined plane, - a cladding sheet of the inclined plane, e.g. made of anodized aluminum, equipped with fastening means cooperating with the retaining means so as to retain the cladding sheet fastened to the inclined plane, wherein the cladding sheet has a lower end counter-shaped to the lower side of the peripheral frame, characterized in that the lower end is cut so as to form a horizontal support base that rests against the horizontal lower side of the peripheral frame. - a lamp body that houses a light source; - a formwork defining a rebated front wall suitable to be attached to the inner side of a plasterboard panel, a fiber-cement sheet or wall cladding, at the rear a light-emitting cavity forming a housing seat for the lamp body and in front a light-emitting opening in the front wall, said light-emitting opening being delimited by a peripheral frame extending frontally and perpendicularly from the front wall in such a way that the front edge of said peripheral frame is flush with the outer side of the panel, sheet or wall cladding, the light-emitting cavity being delimited below by an inclined plane towards which the light generated by the light source is projected and which ends at the light-emitting opening, the formwork being further equipped with retaining means cooperating with said inclined plane, - a cladding sheet of the inclined plane, e.g. made of anodized aluminum, equipped with fastening means cooperating with the retaining means so as to retain the cladding sheet fastened to the inclined plane,
A wearable device (100, 401, 501, 601), comprising: a screen to display a user interface; a gyroscopic sensing system comprising: an input device (110, 402, 502, 602) to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; the processing circuitry configured to: process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options (404, 409, 604, 610) in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection. a screen to display a user interface; a gyroscopic sensing system comprising: an input device (110, 402, 502, 602) to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; an input device (110, 402, 502, 602) to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; the processing circuitry configured to: process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options (404, 409, 604, 610) in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection. process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options (404, 409, 604, 610) in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection.
An electricity meter having a cutoff member, control means for controlling the cutoff member, and estimator means for estimating an opening delay between an open order and actual opening of the cutoff member, and/or a closing delay between a close order and actual closing of the cutoff member, the estimator means comprising: • a resonant inductive circuit comprising a coil mounted stationary relative to the cutoff member and facing a path of a movable contact of the cutoff member; • send means arranged to send a voltage pulse into the inductive circuit; • detector means arranged to detect a damped oscillating voltage signal (So) at the output from the inductive circuit and to compare it with a reference voltage, and to detect the position of the movable contact and thus actual opening or actual closing of the cutoff member as a function of the number of oscillations above the reference voltage; and • measurement means for measuring the time between the open order and detecting actual opening so as to estimate the opening delay, and/or between the close order and detecting actual closing so as to estimate the closing delay. • a resonant inductive circuit comprising a coil mounted stationary relative to the cutoff member and facing a path of a movable contact of the cutoff member; • send means arranged to send a voltage pulse into the inductive circuit; • detector means arranged to detect a damped oscillating voltage signal (So) at the output from the inductive circuit and to compare it with a reference voltage, and to detect the position of the movable contact and thus actual opening or actual closing of the cutoff member as a function of the number of oscillations above the reference voltage; and • measurement means for measuring the time between the open order and detecting actual opening so as to estimate the opening delay, and/or between the close order and detecting actual closing so as to estimate the closing delay.
A method for monitoring at least one aquaculture pond, comprising: a) monitoring at least one aerial parameter of use of the at least one aquaculture pond, wherein the aerial parameter of use can adopt at least two values, wherein the at least two values indicate: i) the aquaculture pond is active, or ii) the aquaculture pond is inactive; b) determining a temporal development of the aerial parameter of use; and c) determining an intensity of use of the aquaculture pond by using the temporal development of the aerial parameter of use, wherein the intensity of use comprises information on a duration of the aquaculture pond being active, specifically the duration for which the aerial parameter of use has the value i), wherein in step c) the intensity of use of the aquaculture pond is determined by sensing the interval between filling and draining of the aquaculture pond. a) monitoring at least one aerial parameter of use of the at least one aquaculture pond, wherein the aerial parameter of use can adopt at least two values, wherein the at least two values indicate: i) the aquaculture pond is active, or ii) the aquaculture pond is inactive; b) determining a temporal development of the aerial parameter of use; and c) determining an intensity of use of the aquaculture pond by using the temporal development of the aerial parameter of use, wherein the intensity of use comprises information on a duration of the aquaculture pond being active, specifically the duration for which the aerial parameter of use has the value i), wherein in step c) the intensity of use of the aquaculture pond is determined by sensing the interval between filling and draining of the aquaculture pond.
A solid-state radar device (101, 102), comprising: a transmission/reception unit transmits and receives radio wave signals comprising a modulated signal and a non-modulated signal, which are pulse signals whose frequencies are different from each other; a frequency filter unit respectively separates the modulated signal and the non-modulated signal from the received radio wave signals based on the frequencies by using band pass filters; a pulse compression unit generate a pulse-compressed signal by pulse-compressing the modulated signal; a first echo image generation unit generates a first echo image based on the non-modulated signal and the pulse-compressed signal; a wave analysis unit analyzes ocean wave information based on one of the non-modulated signal and the pulse-compressed signal; and a display signal generation unit generates a display signal comprising the first echo image and/or the ocean wave information. a transmission/reception unit transmits and receives radio wave signals comprising a modulated signal and a non-modulated signal, which are pulse signals whose frequencies are different from each other; a frequency filter unit respectively separates the modulated signal and the non-modulated signal from the received radio wave signals based on the frequencies by using band pass filters; a pulse compression unit generate a pulse-compressed signal by pulse-compressing the modulated signal; a first echo image generation unit generates a first echo image based on the non-modulated signal and the pulse-compressed signal; a wave analysis unit analyzes ocean wave information based on one of the non-modulated signal and the pulse-compressed signal; and a display signal generation unit generates a display signal comprising the first echo image and/or the ocean wave information.
A transponder, comprising: a clock-stop sensor configured to gate clock signals; a frequency detector configured to monitor an output frequency of the clock-stop sensor wherein said frequency detector is further configured to determine if said output frequency falls within a response detection frequency range of an external reader; and a frequency shifter configured to shift, in response to the frequency detector determining that the output frequency falls within said response detection frequency range, said output frequency to a value outside said response detection frequency range. a clock-stop sensor configured to gate clock signals; a frequency detector configured to monitor an output frequency of the clock-stop sensor wherein said frequency detector is further configured to determine if said output frequency falls within a response detection frequency range of an external reader; and a frequency shifter configured to shift, in response to the frequency detector determining that the output frequency falls within said response detection frequency range, said output frequency to a value outside said response detection frequency range.
A method, comprising: receiving, by a media device, a plurality of media content data streams; storing, in one or more in-memory buffers, at least a portion of a particular media content stream of the plurality of media content data streams; encrypting the one or more in-memory buffers; receiving, from a client device, a request for the particular media content stream, the request indicating a position within the particular media content stream; in response to determining that the position within the particular media content stream corresponds to a particular encrypted buffer of the one or more encrypted in-memory data buffers, sending the particular encrypted buffer to the client device; and in response to determining that a write limit is reached, storing the one or more in-memory buffers at a secondary storage device, wherein the write limit includes one or more of: a time limit and a number of in-memory data buffers currently stored. receiving, by a media device, a plurality of media content data streams; storing, in one or more in-memory buffers, at least a portion of a particular media content stream of the plurality of media content data streams; encrypting the one or more in-memory buffers; receiving, from a client device, a request for the particular media content stream, the request indicating a position within the particular media content stream; in response to determining that the position within the particular media content stream corresponds to a particular encrypted buffer of the one or more encrypted in-memory data buffers, sending the particular encrypted buffer to the client device; and in response to determining that a write limit is reached, storing the one or more in-memory buffers at a secondary storage device, wherein the write limit includes one or more of: a time limit and a number of in-memory data buffers currently stored.
A container formed of a spatial, cuboidal metal frame to which the walls and floor are attached and doors are fixed in both front walls, the container comprising internally insulated chambers (5, 6) having polyurethane insulated walls and having a wooden insulation from the inside, one of which is an atrium and the other is a cryochamber equipped with a cooling system for temperatures from -120 to -160°C characterized in that a cooling system consists of: one bisectional (7A, 7B) heat exchanger placed in the cryochamber and one heat exchanger located in the atrium and each heat exchanger (7, 8) is connected by ducts to a main valve located at the front wall of the container and the insulated cryochamber is provided with a supply of dried air, wherein heat exchangers (7 and 8) are connected to the main valve via said ducts and electrovalves connected by electric cables to a control cabinet located on one of the container walls and the cryochamber heat exchanger section has nitrogen supply pipes located at the bottom of the exchanger and the second section at the top of the exchanger and the heat exchanger section has a nitrogen supply pipe at a distance from the upper surface of the exchanger of 0.3 - 0.4 of total heat exchanger height. the container comprising internally insulated chambers (5, 6) having polyurethane insulated walls and having a wooden insulation from the inside, one of which is an atrium and the other is a cryochamber equipped with a cooling system for temperatures from -120 to -160°C characterized in that a cooling system consists of: one bisectional (7A, 7B) heat exchanger placed in the cryochamber and one heat exchanger located in the atrium and each heat exchanger (7, 8) is connected by ducts to a main valve located at the front wall of the container and the insulated cryochamber is provided with a supply of dried air, wherein heat exchangers (7 and 8) are connected to the main valve via said ducts and electrovalves connected by electric cables to a control cabinet located on one of the container walls and the cryochamber heat exchanger section has nitrogen supply pipes located at the bottom of the exchanger and the second section at the top of the exchanger and the heat exchanger section has a nitrogen supply pipe at a distance from the upper surface of the exchanger of 0.3 - 0.4 of total heat exchanger height.
A cathode comprising a cathode layer for all-solid-state batteries, wherein the cathode layer contains cathode active material particles and solid electrolyte particles; wherein at least one of the cathode active material particles and the solid electrolyte particles contain a sulfur element which is not oxidized; wherein a P-S bond is present between the sulfur element and a phosphorus element, or a Li-S bond is present between the sulfur element and a lithium element; wherein the moisture content of the cathode active material particles is less than 402 ppm; and wherein, in a photoelectron spectrum by X-ray photoelectron spectroscopy measurement of the cathode layer, an S peak intensity ratio (C/D), which is derived from the sulfur element, of a signal intensity C at a binding energy of 161.6 eV to a signal intensity D at a binding energy of 163.1 eV, is larger than 0.78.