mhurhangee/ep-ind-claims huggingface dataset:
A differential crystal oscillator circuit (300, 400, 500), comprising: first (360, 460, 560) and second (362, 462, 562) output terminals; a cross-coupled oscillation unit including first (310, 410, 510) and second (312, 412, 512) transistors cross-coupled to the first and second output terminals; first and second metal-oxide semiconductor field-effect transistor (MOSFET) diodes, the first MOSFET diode including a third transistor (320, 420, 520) with a gate terminal of the third transistor connected to a drain terminal of the third transistor only through a first resistor (340, 440, 540), the second MOSFET diode including a fourth transistor (322, 422, 522) with a gate terminal of the fourth transistor connected to a drain terminal of the fourth transistor only through a second resistor (342, 442, 542), wherein the first MOSFET diode couples to the first transistor to provide low-impedance load at low frequencies and higher-impedance load at higher frequencies to the first transistor, wherein the second MOSFET diode couples to the second transistor to provide low-impedance load at low frequencies and higher-impedance load at higher frequencies to the second transistor; and a reference resonator coupled between the first and second output terminals to establish an oscillation frequency, wherein drains of the third and fourth transistors are connected to the resonator and to the drains of the first and second cross-coupled transistors, respectively. first (360, 460, 560) and second (362, 462, 562) output terminals; a cross-coupled oscillation unit including first (310, 410, 510) and second (312, 412, 512) transistors cross-coupled to the first and second output terminals; first and second metal-oxide semiconductor field-effect transistor (MOSFET) diodes, the first MOSFET diode including a third transistor (320, 420, 520) with a gate terminal of the third transistor connected to a drain terminal of the third transistor only through a first resistor (340, 440, 540), the second MOSFET diode including a fourth transistor (322, 422, 522) with a gate terminal of the fourth transistor connected to a drain terminal of the fourth transistor only through a second resistor (342, 442, 542), wherein the first MOSFET diode couples to the first transistor to provide low-impedance load at low frequencies and higher-impedance load at higher frequencies to the first transistor, wherein the second MOSFET diode couples to the second transistor to provide low-impedance load at low frequencies and higher-impedance load at higher frequencies to the second transistor; and a reference resonator coupled between the first and second output terminals to establish an oscillation frequency, wherein drains of the third and fourth transistors are connected to the resonator and to the drains of the first and second cross-coupled transistors, respectively.
Use of microparticles hydrophobized with fluorosilanes for producing surfaces which have self-cleaning properties and a surface structure with elevations which are formed by the microparticles, the surfaces produced having not only self-cleaning properties but also oleophobic, lipophobic and lactophobic properties, characterized in that the surface structure formed by the microparticles has elevations with a mean height of from 20 nm to 25 μm and a mean separation of from 20 nm to 25 μm, the microparticles having a particle diameter of from 0.02 to 100 μm and having been hydrophobized with fluoroalkylalkoxysilanes.
A method for controlling a control system of a vehicle having a first driver support module and a second driver support module, wherein the first driver support module and the second driver support module are capable of operation within an overlapping operational design domain, ODD, the method comprising: obtaining sensor data comprising information about a surrounding environment of the vehicle; determining a fulfilment of the overlapping ODD based on the obtained sensor data; if the overlapping ODD is fulfilled, switching between a first configuration where the first driver support module is active and the second driver support module is inactive, and a second configuration where the first driver support module is inactive and the second driver support module is active; wherein the switching between the first configuration and the second configuration is based on a switching protocol in order to perform closed loop testing of the second driver support module for at least portion of a time period that the vehicle is within an environment that fulfils the overlapping ODD. obtaining sensor data comprising information about a surrounding environment of the vehicle; determining a fulfilment of the overlapping ODD based on the obtained sensor data; if the overlapping ODD is fulfilled, switching between a first configuration where the first driver support module is active and the second driver support module is inactive, and a second configuration where the first driver support module is inactive and the second driver support module is active; wherein the switching between the first configuration and the second configuration is based on a switching protocol in order to perform closed loop testing of the second driver support module for at least portion of a time period that the vehicle is within an environment that fulfils the overlapping ODD.
An engine having an exhaust gas treatment apparatus attached thereto, wherein an exhaust gas treatment apparatus is supported by an engine body and the engine body and the exhaust gas treatment apparatus communicate with each other through an exhaust pipe, a casing of the exhaust gas treatment apparatus configured to comprise a plurality of casing units (5, 6, 7) separable from each other; connection flanges (8, 9, 10, 11) are disposed in respective end portions of the casing units (5, 6, 7); the casing units (5, 6, 7) are coupled together by a connection of the connection flanges (8, 9, 10, 11); the exhaust gas treatment apparatus is supported by the engine body through the connection flanges (8, 9, 10, 11); a diesel particulate filter is accommodated in the exhaust gas treatment apparatus, the casing of the exhaust gas treatment apparatus comprises an accommodation casing unit for the diesel particulate filter, the exhaust inlet-side casing unit and the exhaust outlet-side casing unit; the exhaust inlet-side casing unit and the exhaust outlet-side casing unit are detachably coupled to both ends of the accommodation casing unit for the diesel particulate filter; a ring-shaped spacer is inserted between the connection flanges and of the accommodation casing unit for the diesel particulate filter and the exhaust inlet-side casing unit, a DPF inlet-side space is formed within the ring-shaped spacer, a sensor installation hole is formed in the ring-shaped spacer, and an exhaust sensor can be inserted from the sensor installation hole toward the DPF inlet-side space, a plurality of locked units (8a, 10a) is arranged in the connection flanges (8, 10) where the accommodation casing unit for the diesel particulate filter and the exhaust inlet-side casing unit overlap with each other and spaced apart from each other at equal angles in their circumferential direction, a plurality of locked units is spaced apart from each other at equal angles and arranged in the ring-shaped spacer in the circumferential direction, and a posture of the ring-shaped spacer is moved in the circumferential direction in the unit of the spaced angle, the locked units of the ring-shaped spacer are matched with the locked units (8a, 10a) of the connection flanges (8, 10), and the locked units (8a, 10a) of the connection flanges (8, 10) and the locked units of the ring-shaped spacer are fastened using the flange connection fastening members, so that the posture of the ring-shaped spacer can be changed in the circumferential direction and thus a position and posture of the sensor installation hole can be changed.
A header for a combine harvester, the header comprising: a center section having a first draper belt configured to move crop material in a first direction; a wing pivotably coupled to the center section about a pivot axis and extending laterally away from the center section; and a second draper belt coupled to the wing and configured to move crop material in a second direction different than the first direction, wherein the wing and the second draper belt are in a fixed positional relationship with each other, such that the wing is configured to remain at a constant distance from the second draper belt at all points along the wing during pivoting movement of the wing, wherein the wing includes a roller, wherein the second draper belt is configured to rotate about the roller; the header further comprising a cutterbar coupled to the wing, wherein the cutterbar includes a cutterbar support and reciprocating blades coupled to the cutterbar support, wherein the cutterbar and the second draper belt are in a fixed positional relationship with each other, such that the cutterbar is configured to remain at a constant distance from the second draper belt at all points along the cutterbar during pivoting movement of the wing, characterized in that the pivot axis is coincident with a longitudinal axis of the roller, that a bearing extends axially from the roller, and that the cutterbar support includes a sleeve coupled to the bearing. a center section having a first draper belt configured to move crop material in a first direction; a wing pivotably coupled to the center section about a pivot axis and extending laterally away from the center section; and a second draper belt coupled to the wing and configured to move crop material in a second direction different than the first direction, wherein the wing and the second draper belt are in a fixed positional relationship with each other, such that the wing is configured to remain at a constant distance from the second draper belt at all points along the wing during pivoting movement of the wing, wherein the wing includes a roller, wherein the second draper belt is configured to rotate about the roller; the header further comprising a cutterbar coupled to the wing, wherein the cutterbar includes a cutterbar support and reciprocating blades coupled to the cutterbar support, wherein the cutterbar and the second draper belt are in a fixed positional relationship with each other, such that the cutterbar is configured to remain at a constant distance from the second draper belt at all points along the cutterbar during pivoting movement of the wing, characterized in that the pivot axis is coincident with a longitudinal axis of the roller, that a bearing extends axially from the roller, and that the cutterbar support includes a sleeve coupled to the bearing.
Stripping pliers comprising two pliers legs (2, 3) rotatably fastened at a joint, the pliers legs (2, 3) each having a working region (7, 8) and a gripping region (5, 6), stripping blades (21, 22) which extend transversely with respect to a pivoting plane of the pliers legs (2, 3) further being formed on the free ends of the working regions (7, 8), which stripping blades are designed to move over one another, an adjusting means, for example an adjusting screw, preferably an adjusting screw having a retaining nut, further being accommodated on one of the working regions (7, 8) in order to limit the movement of the stripping blades (21, 22) over one another in an adjustable manner, and a cutting blade (24, 25) additionally being provided at each working region (7, 8), the cutting blade (24, 25) of one working region (7, 8) being designed to interact with the cutting blade (24, 25) of the other working region (7, 8), the cutting edges (26, 27) of which cutting blades each extend in the longitudinal direction of the working regions (7, 8), characterised in that the cutting blades (24, 25) form a cutting region designed as a centre cutter, in that the cutting blades (24, 25) are designed as blades suitable for moving over one another in a scissor-like manner, in that the cutting blades (24, 25) lie above one another over the entire extension thereof, based on a longitudinal extension of the stripping pliers, in the closed position of the stripping pliers, and in that the adjusting means is arranged in front of the cutting edges (24, 25) with respect to the free end of the working region (7, 8).
A method for iteratively blind sampling a signal comprising: receiving a wideband signal; sampling said received wideband signal using a sampling device having an amplifier set at a first gain level to produce a first plurality of sampled signals; recovering from said first plurality of sampled signals a first narrow band signal; re-sampling said received wideband signal using said sampling device to produce a second plurality of sampled signals, wherein said re-sampling includes increasing the gain of said amplifier to a second gain level and suppressing a narrowband component of said wideband signal based on said recovered first narrow band signal; and recovering from said second plurality of sampled signals a second narrowband signal; wherein said sampling device further comprises a mixer configured to receive one or more mixing signals, and wherein the re-sampling includes mixing the received wideband signal with said one or more mixing signals using said mixer to produce a mixed signal; wherein said first narrow band signal has a first center frequency and said sampling device further comprises a second mixer configured to receive one or more periodic mixing signals having a frequency equal to said first center frequency, wherein the re-sampling includes mixing the received wideband signal with said one or more periodic mixing signals to produce a narrowband suppression signal, and wherein the suppressing further comprises subtracting said narrow band suppression signal from said mixed signal. receiving a wideband signal; sampling said received wideband signal using a sampling device having an amplifier set at a first gain level to produce a first plurality of sampled signals; recovering from said first plurality of sampled signals a first narrow band signal; re-sampling said received wideband signal using said sampling device to produce a second plurality of sampled signals, wherein said re-sampling includes increasing the gain of said amplifier to a second gain level and suppressing a narrowband component of said wideband signal based on said recovered first narrow band signal; and recovering from said second plurality of sampled signals a second narrowband signal; wherein said sampling device further comprises a mixer configured to receive one or more mixing signals, and wherein the re-sampling includes mixing the received wideband signal with said one or more mixing signals using said mixer to produce a mixed signal; wherein said first narrow band signal has a first center frequency and said sampling device further comprises a second mixer configured to receive one or more periodic mixing signals having a frequency equal to said first center frequency, wherein the re-sampling includes mixing the received wideband signal with said one or more periodic mixing signals to produce a narrowband suppression signal, and wherein the suppressing further comprises subtracting said narrow band suppression signal from said mixed signal.
A control method of virtual link discovery in a Fibre Channel over Ethernet FCoE protocol system, the method being applied between Ethernet Nodes ENodes and FCoE Forwarders FCFs, wherein some of the ENodes and the FCFs are allocated to different virtual networks, a Virtual Node VN port of each ENode and a Virtual Fibre Channel VFC port of each FCF are provided respectively with a Virtual Network Identification VN ID of a virtual network to which they belong, and the control method comprises the following steps: a1: an ENode sending, via its VN port, an FCoE Initialization Protocol FIP Discovery Solicitation message to the VFC port of each FCF, the FIP Discovery Solicitation message carrying the VN ID of the VN port; a2: the ENode receiving, via its VN port, an FIP Discovery Advertisement message replied by the VFC port of each FCF, the FIP Discovery Advertisement message carrying the VN ID of the VFC port; a3: the ENode matching the VN ID of its VN port with the VN ID carried in each of the FIP Discovery Advertisement messages, and logging into the VFC port corresponding to the matched VN ID, so that a virtual link is established between the VN port of the ENode and the VFC port. a1: an ENode sending, via its VN port, an FCoE Initialization Protocol FIP Discovery Solicitation message to the VFC port of each FCF, the FIP Discovery Solicitation message carrying the VN ID of the VN port; a2: the ENode receiving, via its VN port, an FIP Discovery Advertisement message replied by the VFC port of each FCF, the FIP Discovery Advertisement message carrying the VN ID of the VFC port; a3: the ENode matching the VN ID of its VN port with the VN ID carried in each of the FIP Discovery Advertisement messages, and logging into the VFC port corresponding to the matched VN ID, so that a virtual link is established between the VN port of the ENode and the VFC port.
A shape-spraying apparatus for defining the shape of marking fluid when sprayed on a surface comprising: means (28, 30, 74, 76) to provide a gas flow of air which is arranged to direct sprayed marking fluid material within the shape to be sprayed; characterised in that the shape-spraying apparatus comprises: a mask comprising a pair of masking plates (12, 14) that defines the width of the sprayed marking fluid and mounted to either side of a spray of marking fluid to be sprayed from a nozzle of an aerosol canister, said pair of masking plates (12, 14) comprises a shape-defining edge (22, 24) at which the gas flow of air is provided to direct the sprayed marking fluid material from the shape-defining edge to within the shape to be sprayed; a duct (28, 30) outside the masking plates (12, 14) to convey air from a source to said shape-defining edge (22, 24), the duct (28, 30) comprises an aperture (32, 34) contiguous with said shape-defining edge (22, 24), said apertures extend along the length of and just outside the shape-defining edge (22, 24) and are angled so as to direct the flow of air inwardly across the shape-defining edge (22, 24). means (28, 30, 74, 76) to provide a gas flow of air which is arranged to direct sprayed marking fluid material within the shape to be sprayed; characterised in that the shape-spraying apparatus comprises: a mask comprising a pair of masking plates (12, 14) that defines the width of the sprayed marking fluid and mounted to either side of a spray of marking fluid to be sprayed from a nozzle of an aerosol canister, said pair of masking plates (12, 14) comprises a shape-defining edge (22, 24) at which the gas flow of air is provided to direct the sprayed marking fluid material from the shape-defining edge to within the shape to be sprayed; a duct (28, 30) outside the masking plates (12, 14) to convey air from a source to said shape-defining edge (22, 24), the duct (28, 30) comprises an aperture (32, 34) contiguous with said shape-defining edge (22, 24), said apertures extend along the length of and just outside the shape-defining edge (22, 24) and are angled so as to direct the flow of air inwardly across the shape-defining edge (22, 24). a mask comprising a pair of masking plates (12, 14) that defines the width of the sprayed marking fluid and mounted to either side of a spray of marking fluid to be sprayed from a nozzle of an aerosol canister, said pair of masking plates (12, 14) comprises a shape-defining edge (22, 24) at which the gas flow of air is provided to direct the sprayed marking fluid material from the shape-defining edge to within the shape to be sprayed; a duct (28, 30) outside the masking plates (12, 14) to convey air from a source to said shape-defining edge (22, 24), the duct (28, 30) comprises an aperture (32, 34) contiguous with said shape-defining edge (22, 24), said apertures extend along the length of and just outside the shape-defining edge (22, 24) and are angled so as to direct the flow of air inwardly across the shape-defining edge (22, 24).
A method of monitoring patient compliance with a compression therapy regimen, the method comprising: receiving a signal from a pressure sensor coupled to a compression garment, wherein the garment is sized and shaped to be wrapped around substantially a limb of a wearer and comprises one or more selectively inflatable bladders (18a-n) for applying compression to the limb upon inflation, the signal being indicative of a change of girth of the limb; determining a venous refill time of the limb as a function of the received signal; monitoring the determined venous refill time; monitoring a shift time; incrementing an active therapy time in response to the monitored venous refill time exceeding a predetermined threshold; determining compliance as a ratio of the active therapy time to the shift time; and displaying the active therapy time and the determined compliance. receiving a signal from a pressure sensor coupled to a compression garment, wherein the garment is sized and shaped to be wrapped around substantially a limb of a wearer and comprises one or more selectively inflatable bladders (18a-n) for applying compression to the limb upon inflation, the signal being indicative of a change of girth of the limb; determining a venous refill time of the limb as a function of the received signal; monitoring the determined venous refill time; monitoring a shift time; incrementing an active therapy time in response to the monitored venous refill time exceeding a predetermined threshold; determining compliance as a ratio of the active therapy time to the shift time; and displaying the active therapy time and the determined compliance.
A camera module comprising: a housing including a first housing and a second housing disposed under the first housing in a vertical direction; a lens barrel disposed in the first housing, the vertical direction being parallel to an optical axis of the lens barrel; characterized by a driving unit including a first driving module (173, 177) and a second driving module (175, 177), the first driving module (173, 177) disposed between the first housing and the lens barrel and including a first coil means and a magnet means, the second driving module (175, 177) including a second coil means disposed between the second housing and the magnet means, a sensor unit disposed under a portion of the second housing in a direction parallel to the optical axis, wherein the first housing includes four side surfaces, wherein the magnet means includes four magnets, each magnet having a shape of plate and facing one of the four side surfaces of the first housing, respectively, and wherein the second coil means includes four coils, each coil disposed between the second housing and the four magnets, respectively, and wound around an axis parallel with the optical axis of the lens barrel. a housing including a first housing and a second housing disposed under the first housing in a vertical direction; a lens barrel disposed in the first housing, the vertical direction being parallel to an optical axis of the lens barrel; characterized by a driving unit including a first driving module (173, 177) and a second driving module (175, 177), the first driving module (173, 177) disposed between the first housing and the lens barrel and including a first coil means and a magnet means, the second driving module (175, 177) including a second coil means disposed between the second housing and the magnet means, a sensor unit disposed under a portion of the second housing in a direction parallel to the optical axis, wherein the first housing includes four side surfaces, wherein the magnet means includes four magnets, each magnet having a shape of plate and facing one of the four side surfaces of the first housing, respectively, and wherein the second coil means includes four coils, each coil disposed between the second housing and the four magnets, respectively, and wound around an axis parallel with the optical axis of the lens barrel.