mhurhangee/ep-ind-claims huggingface dataset:
A semi-hermetic compressor comprising a compressor portion and a motor encased in a housing portion; the housing portion containing a working fluid, wherein the working fluid is ammonia; the compressor portion configured to compress the working fluid, and being driven by the motor; the motor comprising a plurality of insulated copper wires; the plurality of insulated copper wires forming a stator of the motor and extending from the stator within an interior of the housing portion to an exterior of the housing portion through an annular pass-through assembly mounted in the housing portion; characterized in that the pass-through assembly comprises a base portion, a first isolation portion, a second isolation portion, and a cap portion; wherein the base portion forms an airtight seal between the housing portion and an external periphery of the base portion; each of the first and second isolation portions (26, 42) comprising at least one aperture for receiving and compressing an insulated copper wire passing through the base portion.
A hydraulic system (24, 124, 224, 324) for an electric working vehicle or hybrid working vehicle of the kind having an electric source of power and an alternative source of power, the hydraulic system (24, 124, 224, 324) comprising: one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); a hydraulic pump configured to supply hydraulic fluid to the one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); and a hydraulic accumulator (36, 136, 236, 336). wherein the hydraulic pump is configured to operate in a low output state when a flow of hydraulic fluid is not required by the one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); wherein the hydraulic system (24, 124, 224, 324) is configured to use hydraulic fluid supplied by the hydraulic pump in the low output state for one or more auxiliary functions of the hydraulic system (24, 124, 224, 324); and wherein the hydraulic system (24, 124, 224, 324) is configured to supply hydraulic fluid from the hydraulic pump in the low output state to the hydraulic accumulator (36, 136, 236, 336). one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); a hydraulic pump configured to supply hydraulic fluid to the one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); and a hydraulic accumulator (36, 136, 236, 336). wherein the hydraulic pump is configured to operate in a low output state when a flow of hydraulic fluid is not required by the one or more hydraulically actuated devices (16, 116, 216, 316, 26, 126); wherein the hydraulic system (24, 124, 224, 324) is configured to use hydraulic fluid supplied by the hydraulic pump in the low output state for one or more auxiliary functions of the hydraulic system (24, 124, 224, 324); and wherein the hydraulic system (24, 124, 224, 324) is configured to supply hydraulic fluid from the hydraulic pump in the low output state to the hydraulic accumulator (36, 136, 236, 336).
Network node for a wireless communication network, the network node for performing interlacing with clustered Discrete Fourier Transform Spread Orthogonal Frequency Division Multiplexing, DFT-S-OFDM, modulation, the network node comprising controlling circuitry configured to cause: reception of Quadrature Amplitude Modulation, QAM, modulated samples representing signals to be transmitted; Discrete Fourier Transform, DFT, precoding of the received QAM modulated samples; reception of an interlace pattern; Resource block-to-subcarrier mapping of the DFT precoded samples, utilizing the received interlace pattern, thereby causing obtainment of a vector of subcarriers; input of the obtained vector of subcarriers to an Inverse Fast Fourier Transformation, IFFT, block; and optionally addition of a cyclic prefix. reception of Quadrature Amplitude Modulation, QAM, modulated samples representing signals to be transmitted; Discrete Fourier Transform, DFT, precoding of the received QAM modulated samples; reception of an interlace pattern; Resource block-to-subcarrier mapping of the DFT precoded samples, utilizing the received interlace pattern, thereby causing obtainment of a vector of subcarriers; input of the obtained vector of subcarriers to an Inverse Fast Fourier Transformation, IFFT, block; and optionally addition of a cyclic prefix.
An apparatus comprising: a device for receiving a multicast digital message, the multicast digital message having a format comprising: a duration field, DURATION; a multicast receiver address field, RA; a multicast transmitter address field, TA; characterized in that said format further comprises bits specifying a destination that is requested to reply to the multicast digital message. a device for receiving a multicast digital message, the multicast digital message having a format comprising: a duration field, DURATION; a multicast receiver address field, RA; a multicast transmitter address field, TA; characterized in that said format further comprises bits specifying a destination that is requested to reply to the multicast digital message. a duration field, DURATION; a multicast receiver address field, RA; a multicast transmitter address field, TA; characterized in that said format further comprises bits specifying a destination that is requested to reply to the multicast digital message.
A vascular implant (10; 50) for implanting into a blood vessel of a patient, wherein the vascular implant (10; 50) is being transformable from a compressed state into a self-expanded state, comprising a hollow-cylindrical main body (44; 52) with a proximal end (40; 53) and a distal end (42; 54), a main body lumen and a longitudinal direction, and comprising a portion (28; 69) that comprises, respectively, one-piece stent springs (12, 13, 14, 15, 16, 17, 18, 19; 59, 60, 61, 62, 63, 46, 65, 66) successively arranged in the longitudinal direction of the main body (44; 52) and circumferentially meandering, respectively, perpendicularly in relation to the longitudinal direction, and an implant material (43; 70) fixed to the stent springs (12, 13, 14, 15, 16, 17, 18, 19; 59, 60, 61, 62, 63, 46, 65, 66) and connecting them, the stent springs (12, 13, 14, 15, 16, 17, 18, 19; 59, 60, 61, 62, 63, 46, 65, 66) only being connected to one another via the implant material (43; 70) and not between one another, and wherein the circumferentially meandering stent springs (12, 13, 14, 15, 16, 17, 18, 19; 59, 60, 61, 62, 63, 46, 65, 66) comprise pointed arches (20; 57) that alternately face toward the proximal end and the distal end of the main body (44; 52) and parallel to the longitudinal direction thereof, and also comprising at least one hollow-cylindrical side-body (32; 56) that branches off from the main body (44; 52) and comprises a side-body lumen and a side-body implant material (36; 71), wherein the side-body lumen being a fluidic connection with the main body lumen, characterized in that, in the self-expanded state, the at least one side-body (32; 56) branching off from the main body (44; 52) is set up at an angle in relation to the longitudinal direction of the main body (44; 52), wherein the angle is being effected by at least one pointed arch (30; 48) of a stent spring (14; 61) of the main body (44, 52) angularly protruding in a performed way in relation to the longitudinal direction of the main body (44, 52) in the self-expanded state.
A ventilation device that has a fan connected to a control, wherein both the control as well as the fan are arranged in a housing, and wherein the control is connected to at least one display apparatus as well as to the at least one control element, wherein the housing consists of a front unit that has at least one display apparatus, and the housing has two additional housing parts (16, 17) that form a fan box, wherein the fan is held in the housing (1, 16, 17) by a viscoelastic or elastomer support part, wherein the support part is arranged in a vertical direction between the housing parts (16, 17), characterized in that the front unit consists of a vertically extending first segment and a second segment that is oblique to the vertical direction and in which the at least one display apparatus is arranged, wherein the at least one display apparatus is arranged oblique to the vertical direction.
An overvoltage characteristics evaluation apparatus for a battery, comprising: a sensing unit configured to measure a current and a voltage of the battery; and a control unit configured to determine a measured capacity history and a measured voltage history indicating a time-series change in capacity and voltage of the battery using sensing information obtained from the sensing unit during a discharge event executed subsequent to polarization-inducing pretreatment for the battery, determine a first measured voltage curve indicating a correlation between the measured capacity history and the measured voltage characterised in that the control unit is further configured to determine a second measured voltage curve indicating a correlation between a depth of discharge history obtained by normalizing the measured capacity history to a total discharge capacity of the measured capacity history and the measured voltage history, determine a differential voltage curve from the second measured voltage curve by differentiating the measured voltage history with respect to the depth of discharge history, and determine overvoltage characteristics information associated with the polarization-inducing pretreatment by comparing the differential voltage curve with a reference differential voltage curve. a sensing unit configured to measure a current and a voltage of the battery; and a control unit configured to determine a measured capacity history and a measured voltage history indicating a time-series change in capacity and voltage of the battery using sensing information obtained from the sensing unit during a discharge event executed subsequent to polarization-inducing pretreatment for the battery, determine a first measured voltage curve indicating a correlation between the measured capacity history and the measured voltage characterised in that the control unit is further configured to determine a second measured voltage curve indicating a correlation between a depth of discharge history obtained by normalizing the measured capacity history to a total discharge capacity of the measured capacity history and the measured voltage history, determine a differential voltage curve from the second measured voltage curve by differentiating the measured voltage history with respect to the depth of discharge history, and determine overvoltage characteristics information associated with the polarization-inducing pretreatment by comparing the differential voltage curve with a reference differential voltage curve. determine a second measured voltage curve indicating a correlation between a depth of discharge history obtained by normalizing the measured capacity history to a total discharge capacity of the measured capacity history and the measured voltage history, determine a differential voltage curve from the second measured voltage curve by differentiating the measured voltage history with respect to the depth of discharge history, and determine overvoltage characteristics information associated with the polarization-inducing pretreatment by comparing the differential voltage curve with a reference differential voltage curve.
Method for installing on an outer face of a wall of a space vehicle, a thermal-optical part, characterised in that it comprises the steps of: 110 - obtaining a roll of material comprised of a metal sheet including a layer of conductive adhesive, 200 - application of at least one coat of white or black paint on at least a portion of the non-adhesive face of this roll, 300 - polymerisation of the paint, 400 - preparation of the surface of the wall before gluing, 500 - cutting in the painted and polymerised portion in the step 300, of a patch at the dimensions of the application zone provided, as such forming a thermal-optical part, 600 - application of the thermal-optical part on the outer face of the wall of the space vehicle. 110 - obtaining a roll of material comprised of a metal sheet including a layer of conductive adhesive, 200 - application of at least one coat of white or black paint on at least a portion of the non-adhesive face of this roll, 300 - polymerisation of the paint, 400 - preparation of the surface of the wall before gluing, 500 - cutting in the painted and polymerised portion in the step 300, of a patch at the dimensions of the application zone provided, as such forming a thermal-optical part, 600 - application of the thermal-optical part on the outer face of the wall of the space vehicle.
A wind power generator system, comprising: a generator comprising a generator cavity; a separation device configured to perform multi-phase flow separation on an upwind direction flow and comprising: an air inlet configured to introduce the upwind direction flow, and an air outlet in communication with the generator cavity; and an exhaust fan which is in communication with the generator cavity and configured to exhaust hot air flow in the generator cavity characterized in that the separation device comprises a first separator and a second separator, an air inlet of the first separator is configured to introduce the upwind direction flow, an air outlet of the first separator is in communication with an air inlet of the second separator, and an air outlet of the second separator is in communication with the generator cavity; wherein the first separator comprises an outer cylinder with one end closed and a hollow inner container nested in the outer cylinder, both ends of the inner container are open, an air flow passage is formed between an inner circumferential wall of the outer cylinder and an outer circumferential wall of the inner container; and one end of the air flow passage extends towards the closed end of the outer cylinder and is in communication with an air inlet of the inner container, the other end of the air flow passage forms an air inlet configured to introduce the upwind direction flow, and an air outlet of the inner container is in communication with the air inlet of the second separator. a generator comprising a generator cavity; a separation device configured to perform multi-phase flow separation on an upwind direction flow and comprising: an air inlet configured to introduce the upwind direction flow, and an air outlet in communication with the generator cavity; and an air inlet configured to introduce the upwind direction flow, and an air outlet in communication with the generator cavity; and an exhaust fan which is in communication with the generator cavity and configured to exhaust hot air flow in the generator cavity characterized in that the separation device comprises a first separator and a second separator, an air inlet of the first separator is configured to introduce the upwind direction flow, an air outlet of the first separator is in communication with an air inlet of the second separator, and an air outlet of the second separator is in communication with the generator cavity; wherein the first separator comprises an outer cylinder with one end closed and a hollow inner container nested in the outer cylinder, both ends of the inner container are open, an air flow passage is formed between an inner circumferential wall of the outer cylinder and an outer circumferential wall of the inner container; and one end of the air flow passage extends towards the closed end of the outer cylinder and is in communication with an air inlet of the inner container, the other end of the air flow passage forms an air inlet configured to introduce the upwind direction flow, and an air outlet of the inner container is in communication with the air inlet of the second separator.
Method of producing a multilayer pulp material for producing a packaging, wherein a single-layer or multilayer pulp web is continuously unwound from at least one roll, wherein the method comprises at least the following steps: a) Placing a section of the pulp web on a conveyor belt to form a layer; b) Folding the pulp web by means of a folding device and placing a further section of the pulp web on the previous layer to form a further layer; c) Continuously repeating step b); characterized in that the conveyor belt is moved during steps a) and b) continuously or at discrete time intervals substantially transversely or obliquely to an unwinding direction of the roll, such that the individual layers in step b) are arranged in sections one above the other and offset from one another. a) Placing a section of the pulp web on a conveyor belt to form a layer; b) Folding the pulp web by means of a folding device and placing a further section of the pulp web on the previous layer to form a further layer; c) Continuously repeating step b);
Residual current circuit breaker for an electrical circuit, having a summation current transformer for ascertaining a differential current of the electrical circuit, a breaker mechanism comprising contacts for interrupting the electrical circuit, a tripping circuit that is connected to the summation current transformer and the breaker mechanism and is configured in such a way that the breaker mechanism is activated, and so the electrical circuit is interrupted, if a differential current limit value is exceeded, a test circuit comprising a test key for testing the functionality of the residual current circuit breaker, wherein the test circuit has a current source, wherein the test circuit has a series connection comprising the test key and the current source, which is firstly connected to an input-side conductor upstream of the summation current transformer, and secondly is connected to another, output-side conductor downstream of the summation current transformer, and wherein the current source is a two-terminal network, characterized in that the current source has a series connection comprising two transistors (T1, T2), wherein the drain terminal of the first or second transistor (T1, T2) is connected to a first terminal of a first resistor, and in that the source terminals of the two transistors (T1, T2) are connected to one another via a second resistor, wherein the gate terminal of the first transistor is connected to the source terminal of the second transistor, and the gate terminal of the second transistor is connected to the source terminal of the first transistor. a summation current transformer for ascertaining a differential current of the electrical circuit, a breaker mechanism comprising contacts for interrupting the electrical circuit, a tripping circuit that is connected to the summation current transformer and the breaker mechanism and is configured in such a way that the breaker mechanism is activated, and so the electrical circuit is interrupted, if a differential current limit value is exceeded, a test circuit comprising a test key for testing the functionality of the residual current circuit breaker, wherein the test circuit has a current source, wherein the test circuit has a series connection comprising the test key and the current source, which is firstly connected to an input-side conductor upstream of the summation current transformer, and secondly is connected to another, output-side conductor downstream of the summation current transformer, and wherein the current source is a two-terminal network, characterized in that the current source has a series connection comprising two transistors (T1, T2), wherein the drain terminal of the first or second transistor (T1, T2) is connected to a first terminal of a first resistor, and in that the source terminals of the two transistors (T1, T2) are connected to one another via a second resistor, wherein the gate terminal of the first transistor is connected to the source terminal of the second transistor, and the gate terminal of the second transistor is connected to the source terminal of the first transistor.
A seatback for a passenger seat, the seatback comprising: an upwardly extending base having a front and a rear, the front capable of supporting a passenger; and a tray table pivotally attached to the rear of the base by first and second rotatable arms (324, 326) and operable between a stowage position and a use position, the tray table comprising a first half and a second half movably coupled to the first half such that the second half is substantially contiguous with the first half in the use position, and folded to the first half in the stowage position; wherein the rear has a longitudinal length and a transverse width, with the tray table, when in the stowage position, occupying a predetermined portion of the transverse width, and, when in the use position, extending rearward of the base and occupying substantially the whole transverse width; and wherein the first half is connected to the first rotatable arm, and the second half comprises a latch configured to engage with a support member connected to the second rotatable arm when the tray table is in the use position. an upwardly extending base having a front and a rear, the front capable of supporting a passenger; and a tray table pivotally attached to the rear of the base by first and second rotatable arms (324, 326) and operable between a stowage position and a use position, the tray table comprising a first half and a second half movably coupled to the first half such that the second half is substantially contiguous with the first half in the use position, and folded to the first half in the stowage position; wherein the rear has a longitudinal length and a transverse width, with the tray table, when in the stowage position, occupying a predetermined portion of the transverse width, and, when in the use position, extending rearward of the base and occupying substantially the whole transverse width; and wherein the first half is connected to the first rotatable arm, and the second half comprises a latch configured to engage with a support member connected to the second rotatable arm when the tray table is in the use position.