mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a port to transmit first frames of data and receive second frames of the data, over a communication channel, wherein the port comprises: a collision detect circuit to detect collisions on the communication channel between the first frames and the second frames; and a duplex mismatch circuit to declare a duplex mismatch, wherein the apparatus is characterised in that the duplex mismatch circuit declares a duplex mismatch when: the communication channel was established without attempting auto-negotiation, the port is in a half-duplex mode, and the collision detect circuit detects a very late collision involving one of the first frames, wherein a threshold amount of data defining a very late collision is set at four times the count of a late collision, wherein a late collision occurs after byte 64 of the one of the first frames; and wherein the duplex mismatch indicates that a full-duplex mode is used with respect to the second frames. a port to transmit first frames of data and receive second frames of the data, over a communication channel, wherein the port comprises: a collision detect circuit to detect collisions on the communication channel between the first frames and the second frames; and a duplex mismatch circuit to declare a duplex mismatch, a collision detect circuit to detect collisions on the communication channel between the first frames and the second frames; and a duplex mismatch circuit to declare a duplex mismatch, wherein the apparatus is characterised in that the duplex mismatch circuit declares a duplex mismatch when: the communication channel was established without attempting auto-negotiation, the port is in a half-duplex mode, and the collision detect circuit detects a very late collision involving one of the first frames, wherein a threshold amount of data defining a very late collision is set at four times the count of a late collision, wherein a late collision occurs after byte 64 of the one of the first frames; and wherein the duplex mismatch indicates that a full-duplex mode is used with respect to the second frames. the communication channel was established without attempting auto-negotiation, the port is in a half-duplex mode, and the collision detect circuit detects a very late collision involving one of the first frames, wherein a threshold amount of data defining a very late collision is set at four times the count of a late collision, wherein a late collision occurs after byte 64 of the one of the first frames; and wherein the duplex mismatch indicates that a full-duplex mode is used with respect to the second frames.
Rolling stand for a rolling mill for producing solid rods or bars and seamless tubes, comprising a first operative configuration with three roller units (1, 2, 3) oriented with respect to each other for producing solids rods or bars, and it comprises a second operative configuration with two roller units (1, 2) oriented with respect to each other for producing seamless tubes, characterized in that the rolling stand comprises a first part and a second part, the second part being detachable from the first part, each part (A, B) comprising at least one of the roller units (1, 2, 3), the second part being configured to be coupled to the first part in a first position in which three roller units (1, 2, 3) are oriented according to the first operative configuration, or in a second position in which two of said roller units (1, 2) are oriented according to the second operative configuration.
A method of making a flexible bioresorbable foam comprising the steps of: a) providing a carboxymethylcellulose component having original dimensions, b) mixing the carboxymethylcellulose component with water to form a suspension, c) freezing and lyophilizing the carboxymethylcellulose at 0 degrees C or below, and d) crosslinking the carboxymethylcellulose by exposure to temperatures of 115°C to 125°C for three to four hours and sterilizing the crosslinked carboxymethylcellulose by exposing to 160°C for three to four hours, wherein the sterilized carboxymethylcellulose expands to at least 150% of the original dimensions. a) providing a carboxymethylcellulose component having original dimensions, b) mixing the carboxymethylcellulose component with water to form a suspension, c) freezing and lyophilizing the carboxymethylcellulose at 0 degrees C or below, and d) crosslinking the carboxymethylcellulose by exposure to temperatures of 115°C to 125°C for three to four hours and sterilizing the crosslinked carboxymethylcellulose by exposing to 160°C for three to four hours, wherein the sterilized carboxymethylcellulose expands to at least 150% of the original dimensions.
Method of separating foreign polymers from a polymer mixture, comprising amorphous PET particles and crystalline PET particles, wherein the softening point of the foreign polymers is lower than that of the crystalline PET particles, and wherein the method comprises the steps of: - separating the amorphous PET particles from the polymer mixture, - heating the resulting polymer mixture to a temperature between the softening point of the foreign polymers and that of the crystalline PET particles, and - separating the foreign polymers from the resulting polymer mixture. - separating the amorphous PET particles from the polymer mixture, - heating the resulting polymer mixture to a temperature between the softening point of the foreign polymers and that of the crystalline PET particles, and - separating the foreign polymers from the resulting polymer mixture.
A printer convenient for maintaining a paper cutting device, comprising: a paper cutting device, a movable blade component thereof fixed on the upper cover of the printer and a fixed blade thereof fixed on the body of the printer, further comprising: a movable blade avoiding mechanism, comprising: an avoiding cover capable of turning upward and pivoted to the body of the printer, a positioning member and an elastic pressing member which keep the avoiding cover in a predetermined position on the top of the fixed blade, wherein, the avoiding cover and the upper cover of the printer are respectively arranged at two sides of a printing paper conveying passage with opposite turning directions, and a movable blade of the movable blade component is located between the avoiding cover and the fixed blade; characterized in that, during the process of opening the upper cover of the printer, the movable blade which cannot be reset to the initial position due to fault drives the avoiding cover to move, so that the upper cover can be opened. a movable blade avoiding mechanism, comprising: an avoiding cover capable of turning upward and pivoted to the body of the printer, a positioning member and an elastic pressing member which keep the avoiding cover in a predetermined position on the top of the fixed blade, wherein, the avoiding cover and the upper cover of the printer are respectively arranged at two sides of a printing paper conveying passage with opposite turning directions, and a movable blade of the movable blade component is located between the avoiding cover and the fixed blade; characterized in that, during the process of opening the upper cover of the printer, the movable blade which cannot be reset to the initial position due to fault drives the avoiding cover to move, so that the upper cover can be opened.
A device comprising a measurement interferometer and a reference Interferometer, each configured to receive light from the same light source and to emit light to respective detectors and having a respective operating point, wherein the measurement interferometer is configured to respond to variations in a physical parameter by varying the intensity of light emitted, whereas the reference interferometer is configured to be unresponsive to variations in the physical parameter, the device further comprising a signal processor for generating a difference output signal depending on respective output signals generated by the detectors.
A system for managing radio frequency, RF, and ultrasonic signals output by a generator, comprising: a surgical instrument comprising an RF energy output, an ultrasonic energy output, and a circuit (500; 1305); wherein the circuit is configured to: receive a combined RF and ultrasonic signal from the generator; generate an RF filtered signal by filtering RF frequency content from the combined signal; generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined signal; provide the RF filtered signal to the RF energy output for applying RF energy to an end effector of the surgical instrument in a cutting mode, and/or a coagulation mode, and/or a desiccation mode; and provide the ultrasonic filtered signal to the ultrasonic energy output for driving an ultrasonic transducer of the surgical instrument in a cutting mode and/or in a coagulation mode. a surgical instrument comprising an RF energy output, an ultrasonic energy output, and a circuit (500; 1305); wherein the circuit is configured to: receive a combined RF and ultrasonic signal from the generator; generate an RF filtered signal by filtering RF frequency content from the combined signal; generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined signal; provide the RF filtered signal to the RF energy output for applying RF energy to an end effector of the surgical instrument in a cutting mode, and/or a coagulation mode, and/or a desiccation mode; and provide the ultrasonic filtered signal to the ultrasonic energy output for driving an ultrasonic transducer of the surgical instrument in a cutting mode and/or in a coagulation mode. receive a combined RF and ultrasonic signal from the generator; generate an RF filtered signal by filtering RF frequency content from the combined signal; generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined signal; provide the RF filtered signal to the RF energy output for applying RF energy to an end effector of the surgical instrument in a cutting mode, and/or a coagulation mode, and/or a desiccation mode; and provide the ultrasonic filtered signal to the ultrasonic energy output for driving an ultrasonic transducer of the surgical instrument in a cutting mode and/or in a coagulation mode.
Method for producing a solid part by hot sintering treatment of at least one solid organic material containing less than 40% scleroproteins, the method comprising: • A phase of heating said material, at a pressure P 1 in order to reach a critical temperature Tc of between T degradation and T denaturation Wherein: ∘ T degradation refers to the degradation temperature of the constituent protein of said organic material having the lowest degradation temperature, ∘ T denaturation refers to the denaturation temperature of the constituent protein of said organic material having the lowest denaturation temperature ∘ The pressure P 1 is between 10 MPa and 25 MPa, when said solid organic material forms a single layer of material of a single nature in said chamber, and greater than 10 MPa when said organic material forms at least two layers in said chamber, a first layer of an organic material of a first nature and a second layer of an organic material of a second nature different from said first nature • A phase of holding the temperature at said critical temperature T c for a period of less than sixty minutes, • A phase of cooling under stress, at a pressure P 2. • A phase of heating said material, at a pressure P 1 in order to reach a critical temperature Tc of between T degradation and T denaturation Wherein: ∘ T degradation refers to the degradation temperature of the constituent protein of said organic material having the lowest degradation temperature, ∘ T denaturation refers to the denaturation temperature of the constituent protein of said organic material having the lowest denaturation temperature ∘ The pressure P 1 is between 10 MPa and 25 MPa, when said solid organic material forms a single layer of material of a single nature in said chamber, and greater than 10 MPa when said organic material forms at least two layers in said chamber, a first layer of an organic material of a first nature and a second layer of an organic material of a second nature different from said first nature ∘ T degradation refers to the degradation temperature of the constituent protein of said organic material having the lowest degradation temperature, ∘ T denaturation refers to the denaturation temperature of the constituent protein of said organic material having the lowest denaturation temperature ∘ The pressure P 1 is between 10 MPa and 25 MPa, when said solid organic material forms a single layer of material of a single nature in said chamber, and greater than 10 MPa when said organic material forms at least two layers in said chamber, a first layer of an organic material of a first nature and a second layer of an organic material of a second nature different from said first nature • A phase of holding the temperature at said critical temperature T c for a period of less than sixty minutes, • A phase of cooling under stress, at a pressure P 2.
A controller for a breathing apparatus, characterised in that the controller is configured to: store a relationship between a breathing rate of a user of the breathing apparatus and oxygen consumption of the user; receive a first output signal from a differential pressure sensor configured to detect variations in a total gas pressure of a gas mixture in the breathing apparatus, wherein the first output signal is indicative of the variations in the total gas pressure; and determine, using the first output signal, an oxygen consumption rate of the user of the breathing apparatus, wherein determining the oxygen consumption rate comprises: determining a breathing rate of the user from the first output signal; and determining, based on the breathing rate, the oxygen consumption rate using the relationship between the breathing rate and oxygen consumption of the user. store a relationship between a breathing rate of a user of the breathing apparatus and oxygen consumption of the user; receive a first output signal from a differential pressure sensor configured to detect variations in a total gas pressure of a gas mixture in the breathing apparatus, wherein the first output signal is indicative of the variations in the total gas pressure; and determine, using the first output signal, an oxygen consumption rate of the user of the breathing apparatus, wherein determining the oxygen consumption rate comprises: determining a breathing rate of the user from the first output signal; and determining, based on the breathing rate, the oxygen consumption rate using the relationship between the breathing rate and oxygen consumption of the user. determining a breathing rate of the user from the first output signal; and determining, based on the breathing rate, the oxygen consumption rate using the relationship between the breathing rate and oxygen consumption of the user.
An ultrasonograph for obtaining an image of the inside of a subject, comprising a transducer array for transmitting/receiving an ultrasonic pulse to/from the subject, wherein the transducer array is adapted to transmit transmission pulse waves having a plurality of focal points set in an ultrasound propagation direction from each of elements constituting a transmit aperture of said transducer array by using a weighted mean value Un as a delay time, characterised in that the ultrasonograph is adapted to calculate the weighted mean value Un of a plurality of transmission delay time values corresponding to respective focal lengths of the transmission pulse waves by calculating an aperture weight An to be given to the n-th element in the transmit aperture in correspondence with a focal length L and using the calculated aperture weight An on the basis of the delay time Tn to be given to the n-th element in the transmit aperture for transmit focusing with respect to each focal length L in the equation Un = ∫ Tn L An L dL / ∫ An L dL.
A combined electric apparatus having a contactor and a fuse, characterized by comprising: a housing, having a wire outlet side and an operating side opposite the wire outlet side; and a functional component, comprising: an upper wire outlet, disposed at the wire outlet side; a lower wire outlet, disposed at the wire outlet side, and located below the upper wire outlet; a contactor and a fuse, characterized in that the contactor is placed horizontally inside the housing, and having a first contact end close to the wire outlet side and a second contact end close to the operating side, with the first contact end being connected to the lower wire outlet; the fuse is disposed in the housing in such a way as to be inclined relative to the contactor, and having a first connection end close to the wire outlet side and a second connection end close to the operating side, with the first connection end being connected to the upper wire outlet; and wherein the combined electric apparatus has three said functional components, wherein the three fuses are arranged side by side, and the three contactors are arranged side by side. a housing, having a wire outlet side and an operating side opposite the wire outlet side; and a functional component, comprising: an upper wire outlet, disposed at the wire outlet side; a lower wire outlet, disposed at the wire outlet side, and located below the upper wire outlet; a contactor and a fuse, characterized in that the contactor is placed horizontally inside the housing, and having a first contact end close to the wire outlet side and a second contact end close to the operating side, with the first contact end being connected to the lower wire outlet; an upper wire outlet, disposed at the wire outlet side; a lower wire outlet, disposed at the wire outlet side, and located below the upper wire outlet; a contactor and a fuse, characterized in that the contactor is placed horizontally inside the housing, and having a first contact end close to the wire outlet side and a second contact end close to the operating side, with the first contact end being connected to the lower wire outlet; the fuse is disposed in the housing in such a way as to be inclined relative to the contactor, and having a first connection end close to the wire outlet side and a second connection end close to the operating side, with the first connection end being connected to the upper wire outlet; and wherein the combined electric apparatus has three said functional components, wherein the three fuses are arranged side by side, and the three contactors are arranged side by side.
A header assembly comprising an insulative housing having a plurality of walls (302, 304, 306) defining an interior cavity, said interior cavity extending along a mating axis; and a plurality of contacts (350, 370) within said cavity and extending through one of said walls to an exterior of said housing for surface mounting to a circuit board, said insulative housing comprising at least one alignment rib extending in a direction substantially perpendicular to said mating axis, characterized in that said alignment rib is on an exterior surface of said insulative housing, a solder tail section (358, 378) and a lower portion of a forming section (356, 376) of each contact (350, 370) is formed against and partially surrounds the alignment rib, and said contacts (350, 370) are preloaded against said alignment rib as said contacts are installed into said housing, and remain pre-loaded against said alignment rib in a final stage of manufacture, and said contacts (350, 370) abutting said alignment rib, thereby ensuring coplanarity of said contacts for surface mounting to a circuit board.
A welding-type power supply, comprising: - an interface device to receive a commutation selection input; - a power converter to convert input power to welding-type power; - a commutator circuit to output alternating current welding-type power and to control a polarity of the AC welding-type power; and - a control circuit configured to: - determine a threshold output current based on the commutation selection input; - determine an output current and the polarity of the AC welding-type power; and - when the output current is less than the threshold output current, control the commutator circuit to change the polarity of the AC welding-type power, wherein the threshold output current is a different value for a positive current or a negative current with respect to a reference current. - an interface device to receive a commutation selection input; - a power converter to convert input power to welding-type power; - a commutator circuit to output alternating current welding-type power and to control a polarity of the AC welding-type power; and - a control circuit configured to: - determine a threshold output current based on the commutation selection input; - determine an output current and the polarity of the AC welding-type power; and - when the output current is less than the threshold output current, control the commutator circuit to change the polarity of the AC welding-type power, wherein the threshold output current is a different value for a positive current or a negative current with respect to a reference current. - determine a threshold output current based on the commutation selection input; - determine an output current and the polarity of the AC welding-type power; and - when the output current is less than the threshold output current, control the commutator circuit to change the polarity of the AC welding-type power,
A circuit breaker (101, 501), comprising: first and second electrical contacts (104, 106), the electrical contacts configured to generate an electrical arc upon being separated; an arc chamber surrounding at least a portion of a space between the first and second electric contacts; at least one expansion chamber positioned proximate to the arc chamber; and a valve assembly configured to allow threshold-based flow into and out of the at least one expansion chamber, wherein the valve assembly comprises an inlet valve configured to allow one-way inflow and an outlet valve configured to allow one-way outflow. first and second electrical contacts (104, 106), the electrical contacts configured to generate an electrical arc upon being separated; an arc chamber surrounding at least a portion of a space between the first and second electric contacts; at least one expansion chamber positioned proximate to the arc chamber; and a valve assembly configured to allow threshold-based flow into and out of the at least one expansion chamber, wherein the valve assembly comprises an inlet valve configured to allow one-way inflow and an outlet valve configured to allow one-way outflow.
An agent for reductive color removal, said agent containing, in a carrier, at least one sulfinic acid derivative of formula (la-8) in which M represents a hydrogen atom or an equivalent of a monovalent or polyvalent cation, Y represents a hydroxy group, an -NH 2 group or a group -NR 3 R 4, wherein R 3 and R 4, independently of one another, represent a (C 1 to C 6) alkyl group, a (C 2 to C 6) alkenyl group, a (C 1 to C 6) hydroxy alkyl group, a (C 2 to C 6) polyhydroxy alkyl group, an aryl group or an aryl (C 1 to C 6) alkyl group. M'" independently of M, represents the features listed under M, R 1 represents a hydrogen atom or a methyl group, n represents an integer 0, 1, 2, 3, 4, 5 or 6, wherein no more than 1.5 wt.% sulfite anions, based on the weight of the ready-to-use agent, are contained and wherein the agent additionally contains compounds selected from aldehydes and/or ketones. M represents a hydrogen atom or an equivalent of a monovalent or polyvalent cation, Y represents a hydroxy group, an -NH 2 group or a group -NR 3 R 4, wherein R 3 and R 4, independently of one another, represent a (C 1 to C 6) alkyl group, a (C 2 to C 6) alkenyl group, a (C 1 to C 6) hydroxy alkyl group, a (C 2 to C 6) polyhydroxy alkyl group, an aryl group or an aryl (C 1 to C 6) alkyl group. M'" independently of M, represents the features listed under M, R 1 represents a hydrogen atom or a methyl group, n represents an integer 0, 1, 2, 3, 4, 5 or 6,