mhurhangee/ep-ind-claims huggingface dataset:
A Power over Data Lines, PoDL, system including Power Sourcing Equipment, PSE, coupled to a Powered Device, PD, via a wire pair, wherein the PSE includes a DC voltage source having a positive terminal selectively coupled to one of the wires in the wire pair and a reference terminal selectively coupled to the other wire in the wire pair to enable the DC voltage source to fully power the PD, wherein differential data signals and DC power are conducted over the same wire pair when the DC voltage source is connected across the wire pair, the system further comprising: a sense circuit (26, 28, 34, 38, 42, 48) within the PSE coupled to sense a first signal related to a leakage current in a current loop due to a ground isolation fault between the PD and a ground of the PSE, prior to the DC voltage source being connected across the wire pair, the positive terminal of the DC voltage source supplying power to only a first one of the wires (16, 18) in the wire pair during sensing of the ground isolation fault, while the DC voltage source is not connected across the wire pair; and wherein the current loop is formed between the positive terminal of the DC voltage source, supplying all the test current, the first one of the wires in the wire pair, and the ground isolation fault; wherein the sense circuit is coupled to the current loop and measures a level of the leakage current in the current loop to identify if the sensed leakage current indicative of the ground isolation fault is above a threshold value. a sense circuit (26, 28, 34, 38, 42, 48) within the PSE coupled to sense a first signal related to a leakage current in a current loop due to a ground isolation fault between the PD and a ground of the PSE, prior to the DC voltage source being connected across the wire pair, the positive terminal of the DC voltage source supplying power to only a first one of the wires (16, 18) in the wire pair during sensing of the ground isolation fault, while the DC voltage source is not connected across the wire pair; and wherein the current loop is formed between the positive terminal of the DC voltage source, supplying all the test current, the first one of the wires in the wire pair, and the ground isolation fault; wherein the sense circuit is coupled to the current loop and measures a level of the leakage current in the current loop to identify if the sensed leakage current indicative of the ground isolation fault is above a threshold value.
A battery module comprising: a plurality of battery cells stacked on each other; a housing accommodating the plurality of battery cells and including a support member configured to support the plurality of battery cells; and a heat sink configured to contact the support member, wherein the support member has a plurality of through-holes formed therein, and the plurality of through-holes are filled with a thermal interface material that contacts the plurality of battery cells and the heat sink through the through-holes, wherein the thermal interface material is interposed between the plurality of battery cells and the support member so as to be connected to the thermal interface material in the plurality of through-holes of the support member. a plurality of battery cells stacked on each other; a housing accommodating the plurality of battery cells and including a support member configured to support the plurality of battery cells; and a heat sink configured to contact the support member, wherein the support member has a plurality of through-holes formed therein, and the plurality of through-holes are filled with a thermal interface material that contacts the plurality of battery cells and the heat sink through the through-holes, wherein the thermal interface material is interposed between the plurality of battery cells and the support member so as to be connected to the thermal interface material in the plurality of through-holes of the support member.
Picking head for small fruits produced in orchards, particularly for the harvesting of olives, comprising a shaking system consisting of two fruit-detaching assemblies (2A, 2B) mounted opposite each other and separated by a vertical space, characterised in that each of the said fruit-detaching assemblies (2A, 2B) comprises two sub-assemblies (4A, 5A and 4B, 5B), namely a first lower sub-assembly (4A or 4B) and a second upper sub-assembly (5A, 5B) offset towards the rear with respect to the said lower sub-assembly (4A, 4B) and in the direction of forward movement of the machine during working operations, each of the said sub-assemblies (4A, 5A and 4B, 5B) being made up of a plurality of superposed shakers, characterised in that the said superposed shakers are made up of flexible bars fastened at their ends to two vertical shafts (6A, 9A or 6B, 9B or 7A, 10A or 7B, 10B), at least one of which (6A, or 6B, 7A or 7B) is an oscillating actuating shaft linked to a shaking control that allows it to impart an oscillatory motion.
A single-stage process for the production of starch blends in a twin-screw extruder, where i) the starch, together with a plasticizer, passes through a wetting section of length 8D to 30D in an extruder at temperatures below 85°C, with mixing, where D is defined as the screw diameter of the screw cylinder and the wetting section is defined as starting at that point on the extruder screw at which the starch and the entire or partial quantity of plasticizer encounter one another and ending at that point in the extruder at which the starch is gelatinized and is digested to give thermoplastic starch; ii) in a plastifying section of length 10D to 50D the extruder temperature is adjusted stepwise to above 130°C, where the starch is digested, destructured and thermoplastified, and is dispersed in the starch-immiscible polymer, and a water content below 5%, based on the starch blend, is established before the material leaves the extruder; where the starch-immiscible polymer is added in molten or granular form at any desired point in the extruder, and a mixture of all of the components present is consequently produced. i) the starch, together with a plasticizer, passes through a wetting section of length 8D to 30D in an extruder at temperatures below 85°C, with mixing, where D is defined as the screw diameter of the screw cylinder and the wetting section is defined as starting at that point on the extruder screw at which the starch and the entire or partial quantity of plasticizer encounter one another and ending at that point in the extruder at which the starch is gelatinized and is digested to give thermoplastic starch; ii) in a plastifying section of length 10D to 50D the extruder temperature is adjusted stepwise to above 130°C, where the starch is digested, destructured and thermoplastified, and is dispersed in the starch-immiscible polymer, and a water content below 5%, based on the starch blend, is established before the material leaves the extruder;
A method to test a modular integrated circuit (100; 1300) comprising at least one first module (103A, 103C; 1303A, 1303C) and a second module (103B; 1303B), the second module (103B; 1303B) being a module-under-test, at least one of the at least one first modules (1303A, 1303C) having a toggle generator circuit (104A, 104C) and being a neighbor module of the module-under-test, characterized in that the method comprises: testing the module-under-test within the integrated circuit while causing a controlled toggle rate within the at least one first neighbor module (1303A, 1303C), wherein toggle rate is defined as the percentage of the number of bi-stable storage elements of the neighbor module that change their logical output state to a complementary logic state upon the occurrence of a clock signal within some selected time interval.
A rack structure for supporting pipes comprising: at least one foundation; two legs supported by the at least one foundation, each of the two legs including at least one aperture; and a horizontal support having two ends, a first end located in an aperture in a first leg of the two legs and a second end of the horizontal support being located in an aperture in a second leg of the two legs, said rack structure being characterized in that the first end of the horizontal support has a cross-sectional area that is at most 75% of a cross-sectional area of the aperture in the first leg and the second end of the horizontal support has a cross-sectional area that is at most 75% of a cross-sectional area of the aperture in the second leg. at least one foundation; two legs supported by the at least one foundation, each of the two legs including at least one aperture; and a horizontal support having two ends, a first end located in an aperture in a first leg of the two legs and a second end of the horizontal support being located in an aperture in a second leg of the two legs, said rack structure being characterized in that the first end of the horizontal support has a cross-sectional area that is at most 75% of a cross-sectional area of the aperture in the first leg and the second end of the horizontal support has a cross-sectional area that is at most 75% of a cross-sectional area of the aperture in the second leg.
A ferrule for a tube fitting, comprising: an outer layer having a hardness equal or greater than 40 HRc, the outer layer having a thickness of about 0.025 to about 0.051 mm (about 0.001 to about 0.002 inches); an intermediate layer below the outer layer, the intermediate layer having a hardness that is less than the hardness of the outer layer and in the range of 80 HRb to 40 HRc, and the intermediate layer having a thickness equal or greater than 0.076 mm (0.003 inches); a core below the intermediate layer, the core having a hardness that is less than the hardness of the intermediate layer; and wherein the intermediate layer and/or outer layer are not provided at some regions of the outer surface of the ferrule. an outer layer having a hardness equal or greater than 40 HRc, the outer layer having a thickness of about 0.025 to about 0.051 mm (about 0.001 to about 0.002 inches); an intermediate layer below the outer layer, the intermediate layer having a hardness that is less than the hardness of the outer layer and in the range of 80 HRb to 40 HRc, and the intermediate layer having a thickness equal or greater than 0.076 mm (0.003 inches); a core below the intermediate layer, the core having a hardness that is less than the hardness of the intermediate layer; and wherein the intermediate layer and/or outer layer are not provided at some regions of the outer surface of the ferrule.
A pad for forming a seal forming structure against a user's skin for use with a patient interface, the pad comprising a base layer comprising material, a fibre layer comprising a plurality of fibers for contacting a patient's skin, and a connection layer for connecting the fibers to the base material, wherein the base layer is adapted to act as a reservoir for substances, characterized in that the connection layers permeability to the substances is substantially lower than that of the base layer. a base layer comprising material, a fibre layer comprising a plurality of fibers for contacting a patient's skin, and a connection layer for connecting the fibers to the base material, wherein the base layer is adapted to act as a reservoir for substances, characterized in that the connection layers permeability to the substances is substantially lower than that of the base layer.
Lighting device (100; 100') for illuminating tunnels, underpasses or subways, comprising: - at least a first lighting arrangement (101; 101') for illuminating a lower section of a tunnel, underpass or subway and a second lighting arrangement (102; 102') for illuminating an upper section of a tunnel, underpass or subway, wherein at least one of the lighting arrangements (101, 102; 101', 102') comprises: - at least one light source (220, 225; 220', 225') comprising at least one light emitting diode; - at least one reflector (120, 125; 120', 125') comprising an essentially saddle-shaped reflection surface; wherein the light source is arranged such that at least a part of the emitted light is directed to the reflection surface of the reflector (120, 125; 120', 125'); and wherein the light is reflected by the reflection surface in such a way that a wide light distribution of the lighting device is provided at least in a direction parallel to a surface to be illuminated and perpendicular to a main axis of the reflection surface, - wherein the reflection surface of the reflector (120, 125; 120', 125') comprises at least two minima provided at an angle between +/- 50° and +/- 90° DEG with respect to the main axis of the reflection surface. - at least a first lighting arrangement (101; 101') for illuminating a lower section of a tunnel, underpass or subway and a second lighting arrangement (102; 102') for illuminating an upper section of a tunnel, underpass or subway, wherein at least one of the lighting arrangements (101, 102; 101', 102') comprises: - at least one light source (220, 225; 220', 225') comprising at least one light emitting diode; - at least one reflector (120, 125; 120', 125') comprising an essentially saddle-shaped reflection surface; wherein the light source is arranged such that at least a part of the emitted light is directed to the reflection surface of the reflector (120, 125; 120', 125'); and wherein the light is reflected by the reflection surface in such a way that a wide light distribution of the lighting device is provided at least in a direction parallel to a surface to be illuminated and perpendicular to a main axis of the reflection surface, - wherein the reflection surface of the reflector (120, 125; 120', 125') comprises at least two minima provided at an angle between +/- 50° and +/- 90° DEG with respect to the main axis of the reflection surface.
A relay device for relaying data transmitted and received between communication terminals, the relay device being characterized by: a receiving unit configured to receive a notice of changed layout information from a communication terminal that displays at least one of image data of a captured image and display data of a document in at least one area of a screen based on layout information, the image data and the display data being contained in the data transmitted and received between the communication terminals; a changing unit configured to change management information for managing transmission of the data to the communication terminal according to the notified layout information; and a control unit configured to control transmission of at least one of the display data and the image data to the communication terminal according to the changed management information. a receiving unit configured to receive a notice of changed layout information from a communication terminal that displays at least one of image data of a captured image and display data of a document in at least one area of a screen based on layout information, the image data and the display data being contained in the data transmitted and received between the communication terminals; a changing unit configured to change management information for managing transmission of the data to the communication terminal according to the notified layout information; and a control unit configured to control transmission of at least one of the display data and the image data to the communication terminal according to the changed management information.
A method of processing a speech signal, the method comprising: receiving the speech signal over a network from a transmitting device (210, 212) on a receiving terminal, wherein the receiving terminal is coupled to a packet switched network and the transmitting device (210, 212) is coupled to a circuit switched network, the circuit switched network and the packet switched network being coupled via a gateway, wherein the frequency components in the received speech signal are limited to a predetermined frequency range and the received speech signal has been filtered by the transmitting device (210, 212) using a transmitter frequency response over the predetermined frequency range; decoding the received speech signal and determining whether the transmitting device (210, 212) is in the circuit switched network or the packet switched network; and responsive to determining that the transmitting device (210, 212) is in the circuit switched network, filtering the decoded speech signal using a receiver frequency response which is the inverse of the transmitter frequency response over the predetermined frequency range to thereby reduce distortion in the speech signal introduced over the predetermined frequency range by using said transmitter frequency response. receiving the speech signal over a network from a transmitting device (210, 212) on a receiving terminal, wherein the receiving terminal is coupled to a packet switched network and the transmitting device (210, 212) is coupled to a circuit switched network, the circuit switched network and the packet switched network being coupled via a gateway, wherein the frequency components in the received speech signal are limited to a predetermined frequency range and the received speech signal has been filtered by the transmitting device (210, 212) using a transmitter frequency response over the predetermined frequency range; decoding the received speech signal and determining whether the transmitting device (210, 212) is in the circuit switched network or the packet switched network; and responsive to determining that the transmitting device (210, 212) is in the circuit switched network, filtering the decoded speech signal using a receiver frequency response which is the inverse of the transmitter frequency response over the predetermined frequency range to thereby reduce distortion in the speech signal introduced over the predetermined frequency range by using said transmitter frequency response.
An inverter-integrated electric compressor comprising: a housing accommodating an electric motor and a compressing mechanism; an inverter accommodating section provided on a periphery of the housing accommodating the electric motor and the compressing mechanism, and an inverter device that is arranged to convert DC power supplied from a high-volLage power supply into three-phase AC power and to supply the three-phase AC power to the electric motor in the housing via a glass-insulated terminal, wherein the inverter device is accommodated inside the inverter accommodating section, wherein the inverter device includes an inverter module constructed by integrally modularizing a power circuit board on which a semiconductor switching device is mounted and a control board on which control and communication circuits operating at low voltage are mounted, wherein the inverter module is substantially cuboid and has attachment legs (30A-D) protruding outward from a module main body at both ends of two opposing side surfaces of the inverter module, wherein the inverter module is accommodated in the inverter accommodating section by positioning the attachment legs (30a,30B) provided at one side surface of the two opposing side surfaces in spaces at both ends of the glass-insulated terminal, and wherein high voltage components of the inverter device are positioned in a space between the attachment legs (30C,30D) provided on the other side surface of the two opposing side surfaces of the inverter module. a housing accommodating an electric motor and a compressing mechanism; an inverter accommodating section provided on a periphery of the housing accommodating the electric motor and the compressing mechanism, and an inverter device that is arranged to convert DC power supplied from a high-volLage power supply into three-phase AC power and to supply the three-phase AC power to the electric motor in the housing via a glass-insulated terminal, wherein the inverter device is accommodated inside the inverter accommodating section, wherein the inverter device includes an inverter module constructed by integrally modularizing a power circuit board on which a semiconductor switching device is mounted and a control board on which control and communication circuits operating at low voltage are mounted, wherein the inverter module is substantially cuboid and has attachment legs (30A-D) protruding outward from a module main body at both ends of two opposing side surfaces of the inverter module, wherein the inverter module is accommodated in the inverter accommodating section by positioning the attachment legs (30a,30B) provided at one side surface of the two opposing side surfaces in spaces at both ends of the glass-insulated terminal, and wherein high voltage components of the inverter device are positioned in a space between the attachment legs (30C,30D) provided on the other side surface of the two opposing side surfaces of the inverter module.
A compound selected from the group consisting of: Compound Number Structure 7 13 24 28 29 59 62 65 100 114 129 133 143 147 148 149 and salts thereof.
Foamed polyester extrusion equipment comprising a thermoregulated frame provided with a feeding inlet of pure and/or recycled polyester material, inside of said frame two co-rotating screws are arranged, said co-rotating screws defining with the internal walls of said frame a first degassing zone (A, B) interposed between a feeding zone placed at said feeding inlet and a first tight zone, a second degassing zone (C, D) placed downstream from said first degassing zone (A, B) and separated from the latter through said first tight zone, a foaming agent inlet zone placed downstream from said second degassing zone (C, D) and separated from the latter through a second tight zone and a pumping end zone of the melted material placed downstream from said foaming agent inlet zone, wherein: - said first degassing zone (A, B) is adapted to carry out a forced atmospheric degassing at a temperature lower than the melting point of a treated polyester material and comprises a first vent stack placed at a first segment of said first degassing zone (A, B) adjacent to said first tight zone and an extractor hood arranged on top of said first vent stack adapted to activate, the draught of said first vent carrying out said forced atmospheric degassing, - said second degassing zone (C, D) is adapted to carry out a vacuum degassing at a temperature equal to or greater than the melting point of said treated polyester material and - said first degassing zone (A, B) comprises, upstream from said first vent stack, a nozzle for the inlet of preheated nitrogen gas into said first degassing zone (A, B) adapted to entrain vapours present in said first zone (A, B) towards the atmosphere carrying out said forced atmospheric degassing. - said first degassing zone (A, B) is adapted to carry out a forced atmospheric degassing at a temperature lower than the melting point of a treated polyester material and comprises a first vent stack placed at a first segment of said first degassing zone (A, B) adjacent to said first tight zone and an extractor hood arranged on top of said first vent stack adapted to activate, the draught of said first vent carrying out said forced atmospheric degassing, - said second degassing zone (C, D) is adapted to carry out a vacuum degassing at a temperature equal to or greater than the melting point of said treated polyester material and - said first degassing zone (A, B) comprises, upstream from said first vent stack, a nozzle for the inlet of preheated nitrogen gas into said first degassing zone (A, B) adapted to entrain vapours present in said first zone (A, B) towards the atmosphere carrying out said forced atmospheric degassing.