mhurhangee/ep-ind-claims huggingface dataset:
A chemical transfer coupler comprising: an inlet; an outlet; a chemical flow chamber (60, 440) fluidly connecting the inlet and the outlet, the chemical flow chamber (60, 440) having an inner surface (62, 450); and a probe (140, 240) extending through the chemical flow chamber (60, 440), the probe (140, 240) including: a rinse aperture (148, 248), a probe end fitting (144, 244) having a first end (154, 254), a second end (156, 256), and an outer surface, and wherein the chemical flow chamber fluidly (60, 440) couples the rinse aperture (148, 248) and the outlet, characterised in that the probe (140, 240) further includes a first recessed slot (150, 250) extending helically along the outer surface from the first end (154, 254) to the second end (156, 256), and the first recessed slot (150, 250) is positioned at least partially along a flow path extending between the rinse aperture (148, 248) and the outlet. an inlet; an outlet; a chemical flow chamber (60, 440) fluidly connecting the inlet and the outlet, the chemical flow chamber (60, 440) having an inner surface (62, 450); and a probe (140, 240) extending through the chemical flow chamber (60, 440), the probe (140, 240) including: a rinse aperture (148, 248), a probe end fitting (144, 244) having a first end (154, 254), a second end (156, 256), and an outer surface, and wherein the chemical flow chamber fluidly (60, 440) couples the rinse aperture (148, 248) and the outlet, characterised in that the probe (140, 240) further includes a first recessed slot (150, 250) extending helically along the outer surface from the first end (154, 254) to the second end (156, 256), and the first recessed slot (150, 250) is positioned at least partially along a flow path extending between the rinse aperture (148, 248) and the outlet. a rinse aperture (148, 248), a probe end fitting (144, 244) having a first end (154, 254), a second end (156, 256), and an outer surface, and wherein the chemical flow chamber fluidly (60, 440) couples the rinse aperture (148, 248) and the outlet, characterised in that the probe (140, 240) further includes a first recessed slot (150, 250) extending helically along the outer surface from the first end (154, 254) to the second end (156, 256), and the first recessed slot (150, 250) is positioned at least partially along a flow path extending between the rinse aperture (148, 248) and the outlet.
A handover method which comprises: receiving, by a target base station, a handover request from a source base station; and sending, by the target base station, a handover request feedback to the source base station, thereby causing a dual connectivity, DC, based handover to be performed in which a connection between a user equipment, UE, and the source base station is maintained while a connection between the UE and the target base station is established; said method being characterized in that the handover request carries a target base station user equipment aggregate maximum bit rate, UE-AMBR, the target base station UE-AMBR is an AMBR at which the UE allows the target base station to communicate with the UE when the target base station communicates with the UE, wherein a sum of the target base station UE-AMBR and a source base station UE-AMBR does not exceed a UE-AMBR, wherein the source base station UE-AMBR is an AMBR during communication between the source base station and the UE; and establishing (S503,S504), by the target base station, communication with the UE based on the target base station UE-AMBR. receiving, by a target base station, a handover request from a source base station; and sending, by the target base station, a handover request feedback to the source base station, thereby causing a dual connectivity, DC, based handover to be performed in which a connection between a user equipment, UE, and the source base station is maintained while a connection between the UE and the target base station is established; said method being characterized in that the handover request carries a target base station user equipment aggregate maximum bit rate, UE-AMBR, the target base station UE-AMBR is an AMBR at which the UE allows the target base station to communicate with the UE when the target base station communicates with the UE, wherein a sum of the target base station UE-AMBR and a source base station UE-AMBR does not exceed a UE-AMBR, wherein the source base station UE-AMBR is an AMBR during communication between the source base station and the UE; and establishing (S503,S504), by the target base station, communication with the UE based on the target base station UE-AMBR.
A method of wireless data communication, comprising: receiving at least one resource utilization message, RxRUM, at a first node from at least one second node, characterized by: the at least one RxRUM comprising a weighted value indicative of a level of disadvantage of the at least one second node, and the method further comprising: determining, at the first node, the level of disadvantage of the at least one second node indicative of interference at the second node as a function of the weighted value; comparing the determined level of disadvantage to a level of disadvantage of the first node; and determining, at the first node, whether to transmit data over a first channel from the first node based on the comparison, wherein the determination of whether to transmit data triggers the first node to refrain from transmitting any data if the comparison indicates that the level of disadvantage of the first node is better than the determined level of disadvantage. the at least one RxRUM comprising a weighted value indicative of a level of disadvantage of the at least one second node, and the method further comprising: determining, at the first node, the level of disadvantage of the at least one second node indicative of interference at the second node as a function of the weighted value; comparing the determined level of disadvantage to a level of disadvantage of the first node; and determining, at the first node, whether to transmit data over a first channel from the first node based on the comparison, wherein the determination of whether to transmit data triggers the first node to refrain from transmitting any data if the comparison indicates that the level of disadvantage of the first node is better than the determined level of disadvantage. determining, at the first node, the level of disadvantage of the at least one second node indicative of interference at the second node as a function of the weighted value; comparing the determined level of disadvantage to a level of disadvantage of the first node; and determining, at the first node, whether to transmit data over a first channel from the first node based on the comparison, wherein the determination of whether to transmit data triggers the first node to refrain from transmitting any data if the comparison indicates that the level of disadvantage of the first node is better than the determined level of disadvantage.
Heat storage device for storing electrical energy as heat energy, comprising a plurality of heat storage units stacked on top of each other; a distribution pipe for supplying liquid working fluid to the heat storage units; wherein each heat storage unit comprises: - at least one electrical heater for converting electrical energy into heat energy; - at least one heat storage body (30, 31) for receiving and storing heat energy from the at least one electrical heater; and - a heat exchanger with heat exchanger pipes for receiving heat energy from at least one heat storage body (30, 31) and for vaporizing working fluid that can run in the heat exchanger pipes; and a collector pipe which is connected with the heat exchangers to output working fluid vaporized in the heat exchangers; characterized in that the collector pipe is filled with a liquid; in an upper area of the collector pipe, a vapor outlet is provided to output vaporized working fluid which rises through the liquid in the collector pipe. - at least one electrical heater for converting electrical energy into heat energy; - at least one heat storage body (30, 31) for receiving and storing heat energy from the at least one electrical heater; and - a heat exchanger with heat exchanger pipes for receiving heat energy from at least one heat storage body (30, 31) and for vaporizing working fluid that can run in the heat exchanger pipes;
A laundry treatment apparatus comprising: a tub body for storing water therein; a tub cover for forming an upper surface of the tub body; an introduction aperture formed through the tub cover; a drum rotatably provided in the tub body for storing laundry therein, the drum having an opening communicating with the introduction aperture; a rotating shaft for rotating the drum; and a door for opening and closing the introduction aperture, wherein the door comprises: a frame rotatably coupled to the tub cover; a window provided in the frame such that an inside of the tub body is visible from an outside of the tub body; characterized by one or more washing unit adapted to eject at least some of the water moved toward the tub cover to the door using centrifugal force generated while the drum is rotated; and a washing guide adapted to guide at least some of washing water moved to an edge of the frame towards the window using centrifugal force generated while the drum is rotated, such as to prevent impurities from remaining on the window. a tub body for storing water therein; a tub cover for forming an upper surface of the tub body; an introduction aperture formed through the tub cover; a drum rotatably provided in the tub body for storing laundry therein, the drum having an opening communicating with the introduction aperture; a rotating shaft for rotating the drum; and a door for opening and closing the introduction aperture, a frame rotatably coupled to the tub cover; a window provided in the frame such that an inside of the tub body is visible from an outside of the tub body; characterized by one or more washing unit adapted to eject at least some of the water moved toward the tub cover to the door using centrifugal force generated while the drum is rotated; and a washing guide adapted to guide at least some of washing water moved to an edge of the frame towards the window using centrifugal force generated while the drum is rotated, such as to prevent impurities from remaining on the window.
A noise blanker circuit comprising: a detection stage comprising means to receive an input signal; means to provide said input signal along a first signal path and a second signal path; said first signal path including a first detector for detecting impulse noise of a first frequency region of the input signal, and said second signal path including a second detector for detecting impulse noise in a second frequency region of the input signal, wherein the outputs of said first and second detectors (62, 72), are output to a blank pulse generator; said blank pulse generator adapted to output a blank pulse on detection of impulse noise, a pulse removal stage adapted to receive said input signal, and including a sample and hold device adapted to sample and hold said input signal based upon said output of said blank pulse generator to provide an output signal comprising said input signal having portions where impulse noise is removed; and a pulse removal correction stage including a correction device adapted to receive said output signal from said pulse removal stage, and said output signal from said blank pulse generator and, and correct said output signal received from said pulse removal stage based upon said output of said blank pulse generator, wherein said pulse removal correction stage further comprises a delay device adapted to delay said input signal, a demodulator adapted to demodulate said input signal, and a decoder adapted to separate said input signal into two audio outputs. a detection stage comprising means to receive an input signal; means to provide said input signal along a first signal path and a second signal path; said first signal path including a first detector for detecting impulse noise of a first frequency region of the input signal, and said second signal path including a second detector for detecting impulse noise in a second frequency region of the input signal, wherein the outputs of said first and second detectors (62, 72), are output to a blank pulse generator; said blank pulse generator adapted to output a blank pulse on detection of impulse noise, a pulse removal stage adapted to receive said input signal, and including a sample and hold device adapted to sample and hold said input signal based upon said output of said blank pulse generator to provide an output signal comprising said input signal having portions where impulse noise is removed; and a pulse removal correction stage including a correction device adapted to receive said output signal from said pulse removal stage, and said output signal from said blank pulse generator and, and correct said output signal received from said pulse removal stage based upon said output of said blank pulse generator, wherein said pulse removal correction stage further comprises a delay device adapted to delay said input signal, a demodulator adapted to demodulate said input signal, and a decoder adapted to separate said input signal into two audio outputs.
A system for detecting inflammation in tissue, the system comprising: a light emitter; a diffuse reflective spectroscopy probe having a source-detector distance between 300 μm-2000 μm; and a plurality of detectors (106, 108, 110, 112) configured to detect: a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth. a light emitter; a diffuse reflective spectroscopy probe having a source-detector distance between 300 μm-2000 μm; and a plurality of detectors (106, 108, 110, 112) configured to detect: a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth. a first wavelength that is less than 615 nm and having a first bandwidth; and at least second and third wavelengths that are equal to or greater than 615 nm and have second and third bandwidths, respectively, characterized in that said at least second or third bandwidth is greater than said first bandwidth.
Water tank for a steamer having a container for receiving the water, wherein an opening is located on the front of the container, and having an evaporator unit for evaporation of the water, which forms a unit with the container, and an adapter support, wherein the evaporator unit with the adapter support is arranged on the container, characterised in that in the front extension of the container the evaporator unit is arranged at its one end so as to adjoin the container and a cover of the evaporator unit is pivotably arranged on the adapter support.
A quantum cascade laser including one or more p-type electrical isolation regions and a plurality of electrically isolated laser sections (10, 12, 14) extending along a waveguide axis of the laser, wherein: the quantum cascade laser comprises an active waveguide core sandwiched between upper and lower n-type cladding layers (22, 26, 24); and the core layer comprises alternating semiconductor layers that are configured to amplify light emitted due to carrier transitions between energy states within the same energy band, characterised in that the active core and the upper and lower n-type cladding layers (22, 26, 24) extend through the electrically isolated laser sections (10, 12, 14) of the quantum cascade laser; a portion of the upper n-type cladding layer comprises sufficient p-type dopant to define a p-type electrical isolation region that extends across at least a part of the thickness of the upper n-type cladding layer along a projection separating the electrically isolated laser sections (10, 12, 14) of the quantum cascade laser. the quantum cascade laser comprises an active waveguide core sandwiched between upper and lower n-type cladding layers (22, 26, 24); and the core layer comprises alternating semiconductor layers that are configured to amplify light emitted due to carrier transitions between energy states within the same energy band, the active core and the upper and lower n-type cladding layers (22, 26, 24) extend through the electrically isolated laser sections (10, 12, 14) of the quantum cascade laser; a portion of the upper n-type cladding layer comprises sufficient p-type dopant to define a p-type electrical isolation region that extends across at least a part of the thickness of the upper n-type cladding layer along a projection separating the electrically isolated laser sections (10, 12, 14) of the quantum cascade laser.
A method of sorting mailpieces into a sorting frame (1, 2) having sorting slots, characterized in that it comprises the following steps: a) in a sorting pass, and in a memory of a monitoring/control unit with a display screen (7, 7'), recording digital images of the mailpieces to be sorted, each image including a delivery address; b) on the basis of each digital image of a mailpiece to be sorted, generating a sorting code identifying a sorting slot of the sorting frame, and, in the memory, organizing the mailpieces into virtual stacks of images, each virtual stack of images corresponding to a stack of mailpieces placed in a stack in a sorting slot of the sorting frame and the images in each virtual stack of images being sequenced in the same order as the mailpieces in said stack of mailpieces; and c) in a subsequent sorting pass, for sorting a stack of mailpieces into a sorting frame, displacing on the screen the images of said mailpieces organized in a virtual stack and with, in each image, a sorting code embedded in the image. a) in a sorting pass, and in a memory of a monitoring/control unit with a display screen (7, 7'), recording digital images of the mailpieces to be sorted, each image including a delivery address; b) on the basis of each digital image of a mailpiece to be sorted, generating a sorting code identifying a sorting slot of the sorting frame, and, in the memory, organizing the mailpieces into virtual stacks of images, each virtual stack of images corresponding to a stack of mailpieces placed in a stack in a sorting slot of the sorting frame and the images in each virtual stack of images being sequenced in the same order as the mailpieces in said stack of mailpieces; and c) in a subsequent sorting pass, for sorting a stack of mailpieces into a sorting frame, displacing on the screen the images of said mailpieces organized in a virtual stack and with, in each image, a sorting code embedded in the image.
A method for preventing and detecting coolant discharges from complex hydraulic systems, wherein a circuit carrying coolant is divided into clusters comprising stop valves and a relief valve, wherein a pressure sensor that can be integrated is used to perform leak detection diagnosis such that required explosion protection measures and restrictions in the working environment of a filling system can be reduced, characterized in that activation of the relief valves is avoided in that pressure/volume is relieved into an accumulator used by all clusters, and in that the clusters are decoupled from one another using check valves.
Assembly for producing a motor vehicle windscreen wiping system, including an end fitting of a wiper arm adapted to move a wiper and a connection interface, said end fitting being configured to accept an adapter allowing rotation between said arm and the wiper, said assembly being adapted to occupy a working position in which said connection interface is free relative to said end fitting and a service position in which said connection interface can be oriented relative to said end fitting, the assembly being characterised in that said end fitting being configured to guide said connection interface in the working position and in the service position.
A compound having the structure of Formula, or a pharmaceutically acceptable salt thereof, wherein, W is N, C-H, or C-F; X is hydrogen, halogen, -CN, optionally substituted alkyl, optionally substituted alkynyl, optionally substituted carbocyclylalkynyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, or optionally substituted cycloalkylalkyl; Z is an optionally substituted group chosen from alkyl, carbocyclyl, C-attached heterocyclyl, N-attached heterocyclyl, heterocyclylalkyl, heterocyclylalkenyl, -O-heterocyclyl, -N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, -N (C 1 -C 4 alkylene)-NR 2, -O(C 1 -C 4 alkylene)-NR 2; and R is hydrogen or C 1 -C 4 alkyl. W is N, C-H, or C-F; X is hydrogen, halogen, -CN, optionally substituted alkyl, optionally substituted alkynyl, optionally substituted carbocyclylalkynyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, or optionally substituted cycloalkylalkyl; Z is an optionally substituted group chosen from alkyl, carbocyclyl, C-attached heterocyclyl, N-attached heterocyclyl, heterocyclylalkyl, heterocyclylalkenyl, -O-heterocyclyl, -N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, -N (C 1 -C 4 alkylene)-NR 2, -O(C 1 -C 4 alkylene)-NR 2; and R is hydrogen or C 1 -C 4 alkyl.
Drive unit of the belt for a molding machine of bored fins, in particular for heat exchangers, comprising a fixed front part and a movable rear part driven longitudinally with a forward and backward movement to and from the fixed front part, wherein both parts (12, 13) of the drive unit include, on the upper surfaces thereof, support plates (16, 31) for movable vertical teeth (20, 35) with oblique top (22, 37) which protrude upwards under elastic thrust (24, 39) and are suitable for being inserted into corresponding bored collars of the belt downstream of a boring unit of the molding machine, wherein the teeth of the movable rear part drive the belt forward during the forward movement of said movable rear part and then lower below the plane of the belt to leave the belt in the position reached during the next backward movement of the same movable rear part, while the teeth of the fixed front part keep the belt in the position reached, which is suitable for the next cutting operation, during the step of moving the movable rear part backward, characterized in that the upper surfaces of each of the two movable and fixed parts (12, 13) of the drive unit support at least a further support plate (17, 32) for movable vertical teeth (21, 36) with oblique top (23, 38) of greater diameter, which is liftable and lowerable by a control panel as compared to that with teeth (20, 35) of smaller diameter to replace the teeth (21, 36) thereof with those (20, 35) previously used for moving forward and positioning the belt.