mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting a pilot pattern, comprising a pilot signal sp(t), in a received signal r(t) implemented in an Orthogonal Frequency Division Multiplexing (OFDM) system, characterized in that said method comprises the steps: - hypothesizing an initial time frequency offset (τ 0 ν 0) which is unknown, - computing a value of a log-likelihood function Λ(τ 0,ν 0) for a hypotheses space specified by the pilot signal s p (t) and the hypothesized initial time frequency offset (τ 0, ν 0), and - relating the computed value to a reference value to detect the pilot pattern and to estimate the time frequency offset (τ 0 ν 0). - hypothesizing an initial time frequency offset (τ 0 ν 0) which is unknown, - computing a value of a log-likelihood function Λ(τ 0,ν 0) for a hypotheses space specified by the pilot signal s p (t) and the hypothesized initial time frequency offset (τ 0, ν 0), and - relating the computed value to a reference value to detect the pilot pattern and to estimate the time frequency offset (τ 0 ν 0).
An electrical connection box including a dark current circuit connection/disconnection structure, formed by attaching, to a case for housing a dark current circuit, a conduction member holder for holding a conduction member for conductively connecting the dark current circuit, such that the conduction member holder can move in an insertion and removal direction of the conduction member, the conductive member being held such that it is possible to switch between a connection position of being conductively connected to a connection terminal of the dark current circuit housed in a cavity of the case and a disconnection position of being disconnected from the connection terminal, characterized in that the conduction member holder has a conduction member holding portion that extends spanning over a plurality of said cavities provided in the case, the conduction member includes a fuse that is to be connected to the connection terminal of the dark current circuit that is housed in one of the cavities, and a bus bar that is to be simultaneously connected to the connection terminal of the dark current circuit housed in one of the cavities and a connection terminal of another circuit that is housed in another one of the cavities, and the fuse or the bus bar selected according to a required circuit configuration is mounted in the conduction member holding portion. the conduction member holder has a conduction member holding portion that extends spanning over a plurality of said cavities provided in the case, the conduction member includes a fuse that is to be connected to the connection terminal of the dark current circuit that is housed in one of the cavities, and a bus bar that is to be simultaneously connected to the connection terminal of the dark current circuit housed in one of the cavities and a connection terminal of another circuit that is housed in another one of the cavities, and the fuse or the bus bar selected according to a required circuit configuration is mounted in the conduction member holding portion.
Method for operating a heating apparatus, wherein the heating apparatus has an operating characteristic with a fixed off time (t s) within which the heating apparatus does not react to pulsed control signals with two values and with defined pulse lengths of a control device, characterized by the steps of: - reading in and feeding an ambient temperature to the control device, wherein, if the control device attempts to actuate the heating apparatus within the off time (t s), the pulsed control signals of the control device are ignored, wherein a controller signal (S 1) of the control device is corrected in a defined manner in such a way that the pulse length of the pulsed control signal is shortened in a defined manner after the off time (ts) has elapsed. - reading in and feeding an ambient temperature to the control device, wherein, if the control device attempts to actuate the heating apparatus within the off time (t s), the pulsed control signals of the control device are ignored, wherein a controller signal (S 1) of the control device is corrected in a defined manner in such a way that the pulse length of the pulsed control signal is shortened in a defined manner after the off time (ts) has elapsed.
Auger arrangement having a first drill part and a second drill part which are of tubular or bar- shaped design and in which at least one drill part (12, 14) is provided on its external side with an auger flight, wherein on at least one of their end regions the drill parts (12, 14) have matching connecting sections (20, 40), wherein a first connecting section is designed as a sleeve-like female part with keyway elements and a second connecting section is designed as a mandrel-like male part with keyway elements, wherein male part and female part are plugged axially into each other to form a releasable, torque-proof connection, wherein - on an internal wall of the female part an annular internal groove is applied, - on an external wall of the male part an annular external groove is applied, - in a plugged-together state of female part and male part the internal groove and the external groove lie opposite each other and form an annular space, - on an external wall of the female part at least one introduction opening with a passage to the annular internal groove is designed and - to form an axial securing a flexible steel cable is inserted via the introduction opening into the annular space and fills this out completely or to a large degree and - on at least one connecting section (20, 40) a sealing region (26, 46) is arranged, characterized in that - several external grooves and several internal grooves are provided which, in the plugged-together state, form several annular spaces for the axial securing, - in that the sealing region on the mandrel-like male part is located in a front region and - in that the keyway elements (24, 44) lie between the sealing region (26, 46) and the several internal grooves or the several external grooves. - on an internal wall of the female part an annular internal groove is applied, - on an external wall of the male part an annular external groove is applied, - in a plugged-together state of female part and male part the internal groove and the external groove lie opposite each other and form an annular space, - on an external wall of the female part at least one introduction opening with a passage to the annular internal groove is designed and - to form an axial securing a flexible steel cable is inserted via the introduction opening into the annular space and fills this out completely or to a large degree and - on at least one connecting section (20, 40) a sealing region (26, 46) is arranged, - several external grooves and several internal grooves are provided which, in the plugged-together state, form several annular spaces for the axial securing, - in that the sealing region on the mandrel-like male part is located in a front region and - in that the keyway elements (24, 44) lie between the sealing region (26, 46) and the several internal grooves or the several external grooves.
A vehicle mounted display unit (102, 202, 1000) comprising: • a display frame (110, 210, 1460); • a display attached to the display frame (110, 1460); • an electronic control unit attached to the display frame (110, 210, 1460); • a display adaptor attached to the display frame (110, 1460) and acting as an attachment component; • at least one wire harness; • a display cover; and • a display housing, wherein the display cover and the at least one wiring harness have two geometric configurations, one for the vehicle mounted display unit (102, 202, 1000) to be position left from the driver or passenger and one to be position right from the driver or passenger, characterized in that the display cover and the at least one wiring harness have separate configurations for a Left Hand driving and a Right Hand driving vehicle, and the display housing is adapted to accommodate both the LH and RH driving configurations. • a display frame (110, 210, 1460); • a display attached to the display frame (110, 1460); • an electronic control unit attached to the display frame (110, 210, 1460); • a display adaptor attached to the display frame (110, 1460) and acting as an attachment component; • at least one wire harness; • a display cover; and • a display housing, wherein the display cover and the at least one wiring harness have two geometric configurations, one for the vehicle mounted display unit (102, 202, 1000) to be position left from the driver or passenger and one to be position right from the driver or passenger, characterized in that the display cover and the at least one wiring harness have separate configurations for a Left Hand driving and a Right Hand driving vehicle, and the display housing is adapted to accommodate both the LH and RH driving configurations.
Fluid dispenser for a machine for filling or forming containers, comprising a rotating manifold provided with a central bore for connection to a fluid feed shaft of the machine, and with a peripheral series of conduits pierced radially in the manifold, each conduit opening onto an outer face of the manifold at an outlet orifice; characterized in that it comprises a peripheral series of connectors removably mounted on the outer face of the manifold, each connector having: - at least one inlet orifice fluidically connected to an outlet orifice of the rotating manifold; - a group of at least two ducts which communicate with one and the same inlet orifice and open onto an outer face of the connector at two distinct outlet orifices, the dispenser comprising a sealing ring bridging each outlet orifice and each corresponding inlet orifice. - at least one inlet orifice fluidically connected to an outlet orifice of the rotating manifold; - a group of at least two ducts which communicate with one and the same inlet orifice and open onto an outer face of the connector at two distinct outlet orifices,
An illumination optical apparatus for illuminating an object plane with illumination light from a light source, the apparatus comprising: at least one beam limiting member (9a, 9b) for substantially limiting the illumination light incident to the object plane to a specific illumination beam incident in a specific incidence angle range to the object plane; and an optical integrator; characterized by: at least one birefringent member providing different thicknesses of birefringent material at different incidence positions for converting the specific illumination beam into a beam in a polarization state consisting primarily of S-polarization at the object plane, the at least one beam limiting member, the at least one birefringent member and the optical integrator being arranged in order along an optical axis of the optical apparatus, and the at least one beam limiting member being arranged such that the specific incidence angle range is adjustable. at least one beam limiting member (9a, 9b) for substantially limiting the illumination light incident to the object plane to a specific illumination beam incident in a specific incidence angle range to the object plane; and an optical integrator; characterized by: at least one birefringent member providing different thicknesses of birefringent material at different incidence positions for converting the specific illumination beam into a beam in a polarization state consisting primarily of S-polarization at the object plane, at least one birefringent member providing different thicknesses of birefringent material at different incidence positions for converting the specific illumination beam into a beam in a polarization state consisting primarily of S-polarization at the object plane, the at least one beam limiting member, the at least one birefringent member and the optical integrator being arranged in order along an optical axis of the optical apparatus, and the at least one beam limiting member being arranged such that the specific incidence angle range is adjustable.
A synchronous rectifier circuit comprising: first and second high side switches (901, 902) coupled to first and second input nodes (AC1, AC2) and an output node (VRECT) for outputting a rectified voltage; first and second low side switches (903, 904) coupled to the first and second input nodes (AC1, AC2) and a ground node; and first and second high side comparators (911, 912) that control the first and the second high side switches (901, 902) respectively; characterized by: first and second low side comparators (913, 914) that control the low side switches (903, 904) respectively, wherein the low side switches (903, 904) are cross coupled via the low side comparators (913, 914) in that the first low side switch is coupled to an input of the second low side comparator and the second low side switch is coupled to an input of the first low side comparator. first and second high side switches (901, 902) coupled to first and second input nodes (AC1, AC2) and an output node (VRECT) for outputting a rectified voltage; first and second low side switches (903, 904) coupled to the first and second input nodes (AC1, AC2) and a ground node; and first and second high side comparators (911, 912) that control the first and the second high side switches (901, 902) respectively; characterized by: first and second low side comparators (913, 914) that control the low side switches (903, 904) respectively, wherein the low side switches (903, 904) are cross coupled via the low side comparators (913, 914) in that the first low side switch is coupled to an input of the second low side comparator and the second low side switch is coupled to an input of the first low side comparator.
A urinary catheter assembly (10, 100) comprising: a catheter tube (14, 110) including a proximal end and a distal end, said catheter tube (14, 110) defining a flow path and including one or more access eyelets at or adjacent to said proximal end; a connector (16, 104) including first (26, 114) and second (28, 116) surfaces, with the distal end of the catheter tube (14, 110) associated with the first surface (26, 114) of the connector (16, 104); a urine collection bag (18, 112) associated with the second surface (28, 116) of the connector (16, 104), wherein the connector (16, 104) defines a flow path between said catheter tube (14, 110) and said urine collection bag (18, 112), and the connector (16, 104) is deformable between a compact configuration and an expanded configuration in which the catheter tube (14, 110) is spaced a greater distance from the urine collection bag (18, 112) than in the compact configuration; and a package (20, 118) including a body (44, 120) receiving the catheter tube (14, 110) and said urine collection bag (18, 112), with the connector (16, 104) and said urine collection bag (18, 112) in the compact configuration, characterized in that at least a portion of the connector (16, 104) is positioned outside of the body (44, 120) of the package (20, 118). a catheter tube (14, 110) including a proximal end and a distal end, said catheter tube (14, 110) defining a flow path and including one or more access eyelets at or adjacent to said proximal end; a connector (16, 104) including first (26, 114) and second (28, 116) surfaces, with the distal end of the catheter tube (14, 110) associated with the first surface (26, 114) of the connector (16, 104); a urine collection bag (18, 112) associated with the second surface (28, 116) of the connector (16, 104), wherein the connector (16, 104) defines a flow path between said catheter tube (14, 110) and said urine collection bag (18, 112), and the connector (16, 104) is deformable between a compact configuration and an expanded configuration in which the catheter tube (14, 110) is spaced a greater distance from the urine collection bag (18, 112) than in the compact configuration; and the connector (16, 104) defines a flow path between said catheter tube (14, 110) and said urine collection bag (18, 112), and the connector (16, 104) is deformable between a compact configuration and an expanded configuration in which the catheter tube (14, 110) is spaced a greater distance from the urine collection bag (18, 112) than in the compact configuration; and a package (20, 118) including a body (44, 120) receiving the catheter tube (14, 110) and said urine collection bag (18, 112), with the connector (16, 104) and said urine collection bag (18, 112) in the compact configuration, characterized in that at least a portion of the connector (16, 104) is positioned outside of the body (44, 120) of the package (20, 118).
A method for orienting a surface sensing device using apparatus comprising a support attachable to a moveable arm of a machine, the support comprising a first member (1,2) rotatable about a first axis of rotation (1A,2A), a surface sensing device for sensing the surface of a workpiece, the surface sensing device being releasably connectable, directly or indirectly, to the first member for rotation therewith, the surface sensing device being releasably connectable to the first member in at least two relative rotational orientations, and being thereby disconnectable from a first rotational orientation relative to the support and reconnectable in a second rotational orientation relative to the support, wherein the method comprises the following steps: disconnecting the surface sensing device from the support, said surface sensing device being connected to the support in a first orientation; rotating the support relative to the surface sensing device; and reconnecting the surface sensing device and the support into a second orientation. disconnecting the surface sensing device from the support, said surface sensing device being connected to the support in a first orientation; rotating the support relative to the surface sensing device; and reconnecting the surface sensing device and the support into a second orientation.
A detector for high-energy radiography, comprising, in the following order: - a metal screen arranged to receive incident radiation, at least part of the incident radiation being transmitted through the metal screen and forming a transmitted radiation, - a scintillator component arranged to convert the radiation transmitted by the metal screen into light, and - a detection layer arranged to detect the intensity of the light emitted by the scintillator component, the detector being characterized in that the metal screen has one of the following characteristics: - the metal screen is made from uranium, preferably depleted, and has a thickness between 125 μm and 175 μm, or - the metal screen is made from thorium and has a thickness between 225 μm and 275 μm, or - the metal screen is made from bismuth and has a thickness between 225 μm and 275 μm. - a metal screen arranged to receive incident radiation, at least part of the incident radiation being transmitted through the metal screen and forming a transmitted radiation, - a scintillator component arranged to convert the radiation transmitted by the metal screen into light, and - a detection layer arranged to detect the intensity of the light emitted by the scintillator component, - the metal screen is made from uranium, preferably depleted, and has a thickness between 125 μm and 175 μm, or - the metal screen is made from thorium and has a thickness between 225 μm and 275 μm, or - the metal screen is made from bismuth and has a thickness between 225 μm and 275 μm.
A High Internal Phase Emulsion foam formed by polymerizing a High Internal Phase Emulsion comprising: a) an oil phase comprising i) from 20% to 97% by weight of the oil phase of at least one substantially water-insoluble monofunctional alkyl acrylate or alkyl methacrylate, and ii) from 2% to 40% by weight of the oil phase of a substantially water-insoluble, polyfunctional crosslinking alkyl acrylate or methacrylate; iii) emulsifier; iv) cellulose nanoparticles; wherein the cellulose nanoparticles is at least one of Microfibrillated cellulose, Microcrystalline cellulose, Nanocrystalline cellulose, Nano cellulose or Nanocellulose or Bacterial nanocellulose, Nanofibrillated cellulose, Cellulose nanofiber(s), Cellulose microfibril or cellulosic microfibril(s), Cellulose nanorod or cellulosic nanorod(s), Cellulose nanocrystal(s), or combinations thereof; wherein the cellulose nanoparticles are modified by a surface modification prior to insertion into the oil or aqueous phase to make the cellulose nanoparticles more hydrophobic; and b) an aqueous phase comprising from 0.2% to 40% by weight of the aqueous phase of a water-soluble electrolyte. a) an oil phase comprising i) from 20% to 97% by weight of the oil phase of at least one substantially water-insoluble monofunctional alkyl acrylate or alkyl methacrylate, and ii) from 2% to 40% by weight of the oil phase of a substantially water-insoluble, polyfunctional crosslinking alkyl acrylate or methacrylate; iii) emulsifier; iv) cellulose nanoparticles; wherein the cellulose nanoparticles is at least one of Microfibrillated cellulose, Microcrystalline cellulose, Nanocrystalline cellulose, Nano cellulose or Nanocellulose or Bacterial nanocellulose, Nanofibrillated cellulose, Cellulose nanofiber(s), Cellulose microfibril or cellulosic microfibril(s), Cellulose nanorod or cellulosic nanorod(s), Cellulose nanocrystal(s), or combinations thereof; wherein the cellulose nanoparticles are modified by a surface modification prior to insertion into the oil or aqueous phase to make the cellulose nanoparticles more hydrophobic; and i) from 20% to 97% by weight of the oil phase of at least one substantially water-insoluble monofunctional alkyl acrylate or alkyl methacrylate, and ii) from 2% to 40% by weight of the oil phase of a substantially water-insoluble, polyfunctional crosslinking alkyl acrylate or methacrylate; iii) emulsifier; iv) cellulose nanoparticles; wherein the cellulose nanoparticles is at least one of Microfibrillated cellulose, Microcrystalline cellulose, Nanocrystalline cellulose, Nano cellulose or Nanocellulose or Bacterial nanocellulose, Nanofibrillated cellulose, Cellulose nanofiber(s), Cellulose microfibril or cellulosic microfibril(s), Cellulose nanorod or cellulosic nanorod(s), Cellulose nanocrystal(s), or combinations thereof; wherein the cellulose nanoparticles are modified by a surface modification prior to insertion into the oil or aqueous phase to make the cellulose nanoparticles more hydrophobic; and b) an aqueous phase comprising from 0.2% to 40% by weight of the aqueous phase of a water-soluble electrolyte.