mhurhangee/ep-ind-claims huggingface dataset:
A telescoping weigh fork unit comprising a fork having a base fork having an integrated hydraulic cylinder and an outer shoe slidably parallel to the base fork, at least two load cells supported by the outer shoe, where the outer shoe has a load surface and is configured to permit contact between a subject load and the outer shoe, which telescoping weigh fork unit further comprises an outside telescopic fork shoe to which the load cells are mounted and which supports the outer shoe.
Gas cooking device having a gas valve, a hob baseplate and a fixing device which fixes the gas valve to the hob baseplate, wherein the fixing device is designed to snap onto a housing of the gas valve, and wherein the fixing device is clamped to the hob baseplate.
An engine electronic controller system for an aircraft having a first engine that includes a first compressor fan that rotates at a first speed cooperatively with the first engine generating a first thrust and a second engine that includes a second compressor fan that rotates at a second speed cooperatively with the second engine generating a second thrust, the engine electronic controller system comprising: a first engine electronic controller configured to communicate with and control the first engine; a second engine electronic controller configured to communicate with and control the second engine; and characterized by: at least one of a throttle quadrant assembly and an auto thrust controller configured to communicate with the first and second engine electronic controllers to provide engine thrust commands (53, 55), wherein when the engine thrust commands correspond to an engine response within a no dwell zone that is defined from a compressor fan speed lower boundary to a compressor fan speed upper boundary, the first engine electronic controller is operative to direct the first engine to have the first speed of the first compressor fan one of at and below the compressor fan speed lower boundary and the second engine electronic controller is operative to direct the second engine to have the second speed of the second compressor fan one of at and above the compressor fan speed upper boundary such that the second thrust of the second engine is greater than the first thrust of the first engine to produce an overall average thrust that corresponds to the engine response within the no dwell zone. a first engine electronic controller configured to communicate with and control the first engine; a second engine electronic controller configured to communicate with and control the second engine; and characterized by: at least one of a throttle quadrant assembly and an auto thrust controller configured to communicate with the first and second engine electronic controllers to provide engine thrust commands (53, 55), wherein when the engine thrust commands correspond to an engine response within a no dwell zone that is defined from a compressor fan speed lower boundary to a compressor fan speed upper boundary, the first engine electronic controller is operative to direct the first engine to have the first speed of the first compressor fan one of at and below the compressor fan speed lower boundary and the second engine electronic controller is operative to direct the second engine to have the second speed of the second compressor fan one of at and above the compressor fan speed upper boundary such that the second thrust of the second engine is greater than the first thrust of the first engine to produce an overall average thrust that corresponds to the engine response within the no dwell zone.
A lighting device comprising: a light source to emit light; a board mounting the light source on a mount surface perpendicular to a light emission surface of the light source; and a light guide having an incident surface which the light emitted from the light source enters, the incident surface opposed to the light emission surface, the light guide extending from the incident surface in a direction of the emitted light and configured to be bent toward an irradiated surface of an irradiation target placed on an exposure glass, characterized in that the board is disposed such that an opposite surface of the board, which is opposite the mount surface, is configured to be opposed to the irradiated surface of the irradiation target. a light source to emit light; a board mounting the light source on a mount surface perpendicular to a light emission surface of the light source; and a light guide having an incident surface which the light emitted from the light source enters, the incident surface opposed to the light emission surface, the light guide extending from the incident surface in a direction of the emitted light and configured to be bent toward an irradiated surface of an irradiation target placed on an exposure glass, characterized in that the board is disposed such that an opposite surface of the board, which is opposite the mount surface, is configured to be opposed to the irradiated surface of the irradiation target.
A method of transporting error correction codes, ECCs, in a transmission stream, the method comprising: symbol encoding, by a processor, a data stream from a data source into data symbols; generating, by the processor, first ECCs from the data symbols; symbol encoding, by the processor, the first ECCs into first error correction code, ECC, symbols; merging, by the processor, the data symbols and the first ECC symbols into the transmission stream, the first ECC symbols being merged before the data symbols into the transmission stream; and transmitting, by the processor, the merged transmission stream to a sink device via a communication link, the first ECC symbols being transmitted before the data symbols. symbol encoding, by a processor, a data stream from a data source into data symbols; generating, by the processor, first ECCs from the data symbols; symbol encoding, by the processor, the first ECCs into first error correction code, ECC, symbols; merging, by the processor, the data symbols and the first ECC symbols into the transmission stream, the first ECC symbols being merged before the data symbols into the transmission stream; and transmitting, by the processor, the merged transmission stream to a sink device via a communication link, the first ECC symbols being transmitted before the data symbols.
Blank for the construction of a glueless box comprising a bottom panel from which two side panels and two end panels emerge, along with four flaps wherein the flaps are joined by fold lines to the end panels and the side panels, and have cut lines which, together with the fold lines, enable the flaps on the end panels and side panels to be folded, overlapping with the end panels to form a box, characterised in that: - each flap has a cut line (4.2) at its junction with the adjacent end panel, the cut line having a first section coincident with the line joining the flap and its respective end panel and is then angled towards the inside of the flap to the point of convergence with a fold line (4.4) coming from the bottom panel, and each flap has a fold line (4.3) at the junction with the adjacent end panel. - the two end panels each have an oblong-shaped slot in order to define a flap (3.1) hinged by a fold line (3.2) at the junction with the end panel, such that when said flap (3.1) is folded, a slot serving as a handle is visible, while the four flaps have oblong slots (4.1) arranged such that when said four flaps are folded and overlapped on the end panels said slots (4.1) are engaged with the flaps (3.1) of the end panels to hold the box erect. - each flap has a cut line (4.2) at its junction with the adjacent end panel, the cut line having a first section coincident with the line joining the flap and its respective end panel and is then angled towards the inside of the flap to the point of convergence with a fold line (4.4) coming from the bottom panel, and each flap has a fold line (4.3) at the junction with the adjacent end panel. - the two end panels each have an oblong-shaped slot in order to define a flap (3.1) hinged by a fold line (3.2) at the junction with the end panel, such that when said flap (3.1) is folded, a slot serving as a handle is visible, while the four flaps have oblong slots (4.1) arranged such that when said four flaps are folded and overlapped on the end panels said slots (4.1) are engaged with the flaps (3.1) of the end panels to hold the box erect.
A seal assembly for a gas turbine engine comprising: a support mountable to an engine static structure, the support including a main body extending axially between leading and trailing edge portions (178B, 178C) and circumferentially between opposed mate faces (178D, 178E), and the main body including a pair of opposed retention hooks (178F, 178G) extending inwardly from the leading and trailing edge portions (178B, 178C) to bound an elongated groove extending circumferentially between the opposed mate faces (178D, 178E); a seal including a sealing portion that extends from an engagement portion, the sealing portion including a sealing face that extends circumferentially between first and second mate faces (180D, 180E), and an overwrap including one or more plies that follow a perimeter of the engagement portion to define an interface between the retention hooks and the engagement portion, the perimeter defines a dovetail geometry that mates with the retention hooks along the interface to secure the seal, characterised in that the overwrap comprises one or more plies that follow a perimeter of the engagement portion to define first and second interfaces between the first and second retention hooks and the engagement portion, wherein the perimeter defines a dovetail geometry that mates with the retention hooks along the first and second interfaces to secure the seal, and the one or more plies follow the perimeter of the engagement portion from the first interface to the second interface to define the dovetail geometry. a support mountable to an engine static structure, the support including a main body extending axially between leading and trailing edge portions (178B, 178C) and circumferentially between opposed mate faces (178D, 178E), and the main body including a pair of opposed retention hooks (178F, 178G) extending inwardly from the leading and trailing edge portions (178B, 178C) to bound an elongated groove extending circumferentially between the opposed mate faces (178D, 178E); a seal including a sealing portion that extends from an engagement portion, the sealing portion including a sealing face that extends circumferentially between first and second mate faces (180D, 180E), and an overwrap including one or more plies that follow a perimeter of the engagement portion to define an interface between the retention hooks and the engagement portion, the perimeter defines a dovetail geometry that mates with the retention hooks along the interface to secure the seal, characterised in that the overwrap comprises one or more plies that follow a perimeter of the engagement portion to define first and second interfaces between the first and second retention hooks and the engagement portion, wherein the perimeter defines a dovetail geometry that mates with the retention hooks along the first and second interfaces to secure the seal, and the one or more plies follow the perimeter of the engagement portion from the first interface to the second interface to define the dovetail geometry.
Current balancing circuit for a multi-phase DC-DC converter system having a low-pass filter (12, 14) for each phase of the converter system for filtering a voltage which is correlated with this phase, wherein each low-pass filter (12, 14) has at least one capacitor, wherein an electrode of each capacitor is connected to a common neutral point which is decoupled from the earth in order in each case to filter a difference in respect of the voltage of the respective phase and a variable reference voltage which is applied at the neutral point and to provide the filtered voltage for a current balancing control of the DC-DC converter system, characterised by means for producing a differential signal (S11-S13) at least for each phase except for a predetermined phase whose value is proportional to the difference in respect of the mean voltage of the respective phase and a mean voltage of the predetermined phase.
Joint sealing tape for sealing a joint between a first component and a second component in an acoustic, smoke-proof and fire-proof manner, comprising an elongate connecting element and at least two sealing elements and which are positioned on the connecting element so as to be spaced apart next to one another and so as to extend in the longitudinal direction of the connecting element, the sealing elements and consisting of a deformable material which is a slow-burning foam, the sealing elements and having a predetermined geometry, characterized in that the sealing elements and are positioned on the outer edge of the connecting element, and the sealing elements and consist of an intumescent material.
A portable air conditioner for controlling the temperature of air, comprising a transport unit, wherein the air conditioner has at least one housing having an air inlet and an air outlet, wherein the air conditioner is configured so as to control the temperature of air conveyed from the air inlet to the air outlet, wherein the air outlet is adapted to be reversibly connected to the transport unit, wherein the transport unit is thermally insulated, wherein the transport unit encloses an interior space, wherein the interior space of the transport unit is adapted to be temperature-controlled by air that is temperature-controlled by the air conditioner, and wherein the transport unit and the air conditioner are configured and adjusted to each other such that the air conditioner is adapted to be reversibly inserted into the transport unit, characterized in that the transport unit is a bag, and in that the transport unit has a carrier structure in the form of a carrier. wherein the air conditioner has at least one housing having an air inlet and an air outlet, wherein the air conditioner is configured so as to control the temperature of air conveyed from the air inlet to the air outlet, wherein the air outlet is adapted to be reversibly connected to the transport unit, wherein the transport unit is thermally insulated, wherein the transport unit encloses an interior space, wherein the interior space of the transport unit is adapted to be temperature-controlled by air that is temperature-controlled by the air conditioner, and wherein the transport unit and the air conditioner are configured and adjusted to each other such that the air conditioner is adapted to be reversibly inserted into the transport unit, characterized in that the transport unit is a bag, and in that the transport unit has a carrier structure in the form of a carrier.
A method, comprising: receiving asynchronous wideband digital signals from at least one base station, via two or more ports (112a, 112b) of a telecommunications system communicatively coupled to the at least one base station; determining, for each of the asynchronous wideband digital signals, a wideband fast Fourier transform spectrum; determining an average FFT spectrum for each of the two or more ports (112a, 112b) based on the wideband FFT spectrum for each of the two or more ports (112a, 112b); identifying a bandwidth of signals present in the average FFT spectrum for each of the two or more ports (112a, 112b); identifying MIMO signals present in the bandwidth of signals by: comparing the bandwidth of signals corresponding to a first port of the two or more ports (112a, 112b) and the bandwidth of signals corresponding to each of the one or more remaining ports of the two or more ports (112a, 112b); and filtering out signals in the bandwidth of signals corresponding to the first port that do not overlap with any of the bandwidth of signals corresponding to any of the one or more remaining ports by more than a predetermined threshold; and decoding the MIMO signals. receiving asynchronous wideband digital signals from at least one base station, via two or more ports (112a, 112b) of a telecommunications system communicatively coupled to the at least one base station; determining, for each of the asynchronous wideband digital signals, a wideband fast Fourier transform spectrum; determining an average FFT spectrum for each of the two or more ports (112a, 112b) based on the wideband FFT spectrum for each of the two or more ports (112a, 112b); identifying a bandwidth of signals present in the average FFT spectrum for each of the two or more ports (112a, 112b); identifying MIMO signals present in the bandwidth of signals by: comparing the bandwidth of signals corresponding to a first port of the two or more ports (112a, 112b) and the bandwidth of signals corresponding to each of the one or more remaining ports of the two or more ports (112a, 112b); and filtering out signals in the bandwidth of signals corresponding to the first port that do not overlap with any of the bandwidth of signals corresponding to any of the one or more remaining ports by more than a predetermined threshold; and decoding the MIMO signals. comparing the bandwidth of signals corresponding to a first port of the two or more ports (112a, 112b) and the bandwidth of signals corresponding to each of the one or more remaining ports of the two or more ports (112a, 112b); and filtering out signals in the bandwidth of signals corresponding to the first port that do not overlap with any of the bandwidth of signals corresponding to any of the one or more remaining ports by more than a predetermined threshold; and decoding the MIMO signals.
A method for wireless communication, comprising: transmitting an indication of a user equipment, UE, capability, wherein the UE capability includes at least an uplink, UL, carrier aggregation, CA, capability of a UE; receiving a CA configuration and an auxiliary UL configuration, the CA configuration comprising one or more carriers (305-a) configured for UL data transmissions and the auxiliary UL configuration comprising one or more carriers (305-b, 305-c) configured for UL reference signal transmissions; transmitting, based on the CA configuration and the UL CA capability of the UE, a sounding reference signal, SRS, using the one or more carriers of the auxiliary UL configuration; the method further characterised by identifying one or more switching symbols based at least in part on a location of the SRS relative to other symbols of the subframe; puncturing an UL data transmission based at least in part on the one or more switching symbols; and transmitting, during a symbol period after the one or more switching symbols, the UL data transmission using the one or more carriers configured for UL data transmissions. transmitting an indication of a user equipment, UE, capability, wherein the UE capability includes at least an uplink, UL, carrier aggregation, CA, capability of a UE; receiving a CA configuration and an auxiliary UL configuration, the CA configuration comprising one or more carriers (305-a) configured for UL data transmissions and the auxiliary UL configuration comprising one or more carriers (305-b, 305-c) configured for UL reference signal transmissions; transmitting, based on the CA configuration and the UL CA capability of the UE, a sounding reference signal, SRS, using the one or more carriers of the auxiliary UL configuration; the method further characterised by identifying one or more switching symbols based at least in part on a location of the SRS relative to other symbols of the subframe; puncturing an UL data transmission based at least in part on the one or more switching symbols; and transmitting, during a symbol period after the one or more switching symbols, the UL data transmission using the one or more carriers configured for UL data transmissions.
An array substrate, comprising a base substrate and a gate metal layer, a gate insulating layer, an active layer, a source-drain electrode metal layer, a passivation layer and a common electrode layer which are sequentially formed on the base substrate, as well as a pixel electrode layer which is positioned either between the active layer and the source-drain electrode metal layer, or between the source-drain electrode metal layer and the passivation layer; the gate metal layer including a gate electrode and a common electrode line; wherein either the pixel electrode layer, or the source-drain electrode metal layer comprises a connecting electrode, the connecting electrode is electrically connected with the common electrode line through a first via hole in the gate insulating layer, and the connecting electrode is electrically connected with a common electrode of the common electrode layer through a second via hole in the passivation layer; characterized in that vertical projections of the first via hole and the second via hole on the base substrate are mutually staggered, a position of the first via hole corresponds to that of the common electrode line, a position of the second via hole corresponds to that of the common electrode, and the vertical projections of the first via hole and the second via hole on the base substrate fall within a scope of a vertical projection of the connecting electrode on the base substrate.
A computing device for processing a multi-bit width value, wherein the multi-bit width value comprises a higher bit portion and a lower bit portion, and the computing device comprises: an input circuit configured to receive the multi-bit width value and configuration information, wherein the configuration information comprises at least bit width information of the higher bit portion or the lower bit portion; a first component computing circuit configured to perform a computation on the multi-bit width value according to the bit width information of the lower bit portion to obtain a first component representing the higher bit portion of the multi-bit width value; a second component computing circuit configured to perform a computation according to the multi-bit width value and a value associated with at least the first component to obtain a second component representing the lower bit portion of the multi-bit width value; and an output circuit configured to output at least one of the first component and the second component. an input circuit configured to receive the multi-bit width value and configuration information, wherein the configuration information comprises at least bit width information of the higher bit portion or the lower bit portion; a first component computing circuit configured to perform a computation on the multi-bit width value according to the bit width information of the lower bit portion to obtain a first component representing the higher bit portion of the multi-bit width value; a second component computing circuit configured to perform a computation according to the multi-bit width value and a value associated with at least the first component to obtain a second component representing the lower bit portion of the multi-bit width value; and an output circuit configured to output at least one of the first component and the second component.