mhurhangee/ep-ind-claims huggingface dataset:
Circuit for transition from a microstrip line to a slot line comprising: - a substrate equipped with a ground plane, - a microstrip line implemented on said substrate at a predetermined distance from the ground plane and extending from a first input/output port, and a slot implemented in the ground plane forming a slot line extending substantially perpendicularly to said microstrip line as far as a second input/output port and crossing said microstrip line in a so-called coupling zone of the transition circuit, said microstrip line comprising a first microstrip line portion for transmitting a signal between the first input/output port and the coupling zone, and a second microstrip line portion, said slot line comprising a first slot line portion for transmitting said signal between the coupling zone and the second input/output port, and a second slot line portion, characterised in that the slot line comprises a first filtering circuit (SBFs) connected to the coupling zone via said second slot line portion, said first filtering circuit and said second slot line portion being impedance-matched to provide on the slot line, at the coupling zone, an impedance substantially equal to the impedance of an open circuit for at least one desired frequency of the signal and an impedance substantially equal to the impedance of a short circuit for at least one undesirable frequency of the signal. - a substrate equipped with a ground plane, - a microstrip line implemented on said substrate at a predetermined distance from the ground plane and extending from a first input/output port, and a slot implemented in the ground plane forming a slot line extending substantially perpendicularly to said microstrip line as far as a second input/output port and crossing said microstrip line in a so-called coupling zone of the transition circuit,
A process for manufacturing a deaerating hollow fiber module comprising the steps of; wrapping a sheet containing a multiplicity of hollow fibers around a temporary core so that a shape of the sheet is a tubular form; retaining in tubular form said sheet wrapped around said temporary core; supplying a sealing resin to one end of the sheet that is retained in a tubular form, covering a housing main body over said sheet retained in a tubular form, allowing the sealing resin to cure, and after curing removing the temporary core, thereby opening of the hollow fibers are closed, the hollow fibers are bonded to each other and the housing main body at the one end, and a central hole is opened at one end of the sheet in a tubular form; supplying a sealing resin to the other end of the sheet in a tubular form, allowing the sealing resin to cure, supplying a sealing resin via a header formed on the housing main body while subjecting the sheet in tubular form to centrifugation to force resin towards the other end of the sheet in tubular form, allowing the sealing resin to cure, and cutting the housing body and the sheet in tubular form, thereby openings of hollow fibers are opened, the hollow fibers are bonded each other, and the central hole is closed at the other end of the sheet in a tubular form.
Zig-zag folded stack of paper web, in particular zig-zag folded stack of recycling paper web, for further processing as dunnage material in a dunnage material machine which mechanically forms the folded paper web into a dunnage material, such as a cushioning material, wherein at least one fold of the zig-zag folded stack of paper web is formed with a perforation-tie-row (11, 21, 31, 41, 51, 61, 71, 81), wherein ties (15a, 15, 25a, 25, 35a, 35, 45a, 45, 55a, 55, 65a, 65, 75a, 75, 85a, 85) of the fold couple two fold-web-sheets folded above one another, the longitudinal edges (3, 5) of the paper web being free of perforations and rectilinear and realized by an edge-tie (15a, 25a, 35a, 43a, 55a, 65a, 75a, 85a) on the web-height of the fold, wherein the tie (15a, 15, 25a, 25, 35a, 35, 45a, 45, 55a, 55, 65a, 65, 75a, 75, 85a, 85) and the perforation (13, 23, 33, 43, 53, 63, 73, 83) each comprise a maximal longitudinal extension (x i; y i) in the longitudinal fold direction (q), wherein at least a section of a fold comprises a perforation-tie-row (11, 21, 31, 41, 51, 61, 71, 81) of at least five ties (15a, 15, 25a, 25, 35a, 35, 45a, 45, 55a, 55, 65a, 65, 75a, 75, 85a, 85) and perforations (13, 23, 33, 43, 53, 63, 73, 83) each, being alternatingly arranged, and wherein a ratio of a summed up combined longitudinal extension of the ties (15a, 15, 25a, 25, 35a, 35, 45a, 45, 55a, 55, 65a, 65, 75a, 75, 85a, 85) within said fold section with respect to a summed up combined longitudinal extension of the perforations (13, 23, 33, 43, 53, 63, 73, 83) of the same number within said fold section is larger than or equal to 0,8, preferably larger than or equal to 1, characterized in that at the edges of the perforations (13, 23, 33, 43, 53, 63, 73, 83) small notches or small lacerations are formed, which are configured to have an influence on the tearing resistance of the paper web particularly at the perforation-tie-row.
A protective device for a cable connector part, comprising a protective cover adapted to be movable between a first position for protecting the cable connector part and a second position for accessibly exposing at least a connectable end portion of the cable connector part, wherein the protective cover is adapted to be releasably securable at least in the first position, provides in sliding direction an opening, through which a cable connector end portion of the cable connector part passes when the protective cover is moved from the first to the second position, and has a first slot (7, 8) adapted to releasably receive an interlock (5, 6) in the first position to prevent sliding; a stationary support (3, 4) comprising a first support portion for supporting the cable connector part and a second support portion for slidably supporting the protective cover between the first position and the second position; and positive locking means (5, 7; 6, 8) effective between the protective cover and the stationary support (3, 4) to secure the protective cover in the first position, characterized in that the stationary support (3, 4) provides the interlock (5, 6) hinged to the stationary support (3, 4) and elastically movable transverse to the sliding direction such that a free end of the interlock (5, 6) is biased toward the protective cover.
Method for operating a driver information system in an ego vehicle, in which environment data are captured in an environment of the ego vehicle; an additional road user is identified using the captured environment data; a driver information display is generated and output; wherein the driver information display comprises a graphic road user object that represents the additional road user; wherein a display-relevant feature of the additional road user is determined; the road user object associated with the additional road user is formed depending on the display-relevant feature; second environment data are captured in the environment of the ego vehicle at a second, later time; the additional road user is identified again using the captured second environment data; and a specified additional road user object is formed, which replaces the initially displayed graphic road user object (113a, 113b) in the driver information display, characterized in that the specified graphic road user object has a higher specificity than the initially displayed graphic road user object (113a, 113b). environment data are captured in an environment of the ego vehicle; an additional road user is identified using the captured environment data; a driver information display is generated and output; wherein the driver information display comprises a graphic road user object that represents the additional road user; wherein a display-relevant feature of the additional road user is determined; the road user object associated with the additional road user is formed depending on the display-relevant feature; second environment data are captured in the environment of the ego vehicle at a second, later time; the additional road user is identified again using the captured second environment data; and a specified additional road user object is formed, which replaces the initially displayed graphic road user object (113a, 113b) in the driver information display,
A method of compressing an image comprising multiple pixels having property values comprising color values assigned to a pixel or depth values for a depth map or alpha values, said method comprising the steps of: - decomposing said image into multiple superblocks (20, 22), where a superblock (20, 22) comprises N pixel blocks (30A-30D, 32A-32D) of multiple pixels and N is an integer equal to or larger than two; for at least a superblock of said multiple superblocks (20, 22): - fixed rate compressing property values of said superblock to get a compressed block having an output bit length, wherein the output bit length is fixed and equal to a target bit length regardless of the size of the superblock; - assigning said compressed block to each of the memory locations (310, 320) assigned for each of said N pixel blocks (30A-30D) comprised in said superblock to get N copies of said compressed block in said memory locations (310,320), wherein said N copies of said compressed block together constitute a compressed representation of said superblock. - decomposing said image into multiple superblocks (20, 22), where a superblock (20, 22) comprises N pixel blocks (30A-30D, 32A-32D) of multiple pixels and N is an integer equal to or larger than two; for at least a superblock of said multiple superblocks (20, 22): - fixed rate compressing property values of said superblock to get a compressed block having an output bit length, wherein the output bit length is fixed and equal to a target bit length regardless of the size of the superblock; - assigning said compressed block to each of the memory locations (310, 320) assigned for each of said N pixel blocks (30A-30D) comprised in said superblock to get N copies of said compressed block in said memory locations (310,320), wherein said N copies of said compressed block together constitute a compressed representation of said superblock.
A planar waveguide type passively Q-switched element for a laser, said element comprising: a transparent material having a planar shape; two saturable absorbers (42a, 42b) having a planar shape with a refractive index larger than a refractive index of the transparent material; and two cladding films (44a, 44b) having a refractive index smaller than the refractive index of the two saturable absorbers (42a, 42b), wherein surfaces of the two saturable absorbers (42a, 42b) are respectively bonded optically to two surfaces of the transparent material, and wherein the two cladding films (44a, 44b) are respectively bonded optically to surfaces of the two saturable absorbers (42a, 42b) opposed to the surfaces bonded to the transparent material. a transparent material having a planar shape; two saturable absorbers (42a, 42b) having a planar shape with a refractive index larger than a refractive index of the transparent material; and two cladding films (44a, 44b) having a refractive index smaller than the refractive index of the two saturable absorbers (42a, 42b), wherein surfaces of the two saturable absorbers (42a, 42b) are respectively bonded optically to two surfaces of the transparent material, and wherein the two cladding films (44a, 44b) are respectively bonded optically to surfaces of the two saturable absorbers (42a, 42b) opposed to the surfaces bonded to the transparent material.
Connecting element (10; 30; 50; 70) for pressing or embedding into a component, having a shank (12; 32; 52; 72) which extends along a central longitudinal axis of the connecting element (10; 30; 50; 70), wherein the shank (12; 32; 52; 72) is provided with ribs which extend in a radial direction in relation to the shank (12; 32; 52; 72), and wherein the shank (12; 32; 52; 72) at least sectionally has a polylobular cross section, wherein the periphery of the polylobular cross section is convexly curved over its entire length and, when seen in the radial direction, has regions with relatively large radius or relatively small curvature and regions with relatively small radius or relatively large curvature, characterized in that, when seen along the central longitudinal axis, an angular position of the regions with relatively small radius or relatively large curvature and the regions with relatively large radius or relatively small curvature changes along the shank (12; 32; 52; 72).
A method performed by an Integrated Access and Backhaul, IAB, user equipment, UE, in a wireless communication system, the method characterized by: receiving, from a next generation Node B, gNB, random access channel, RACH, configuration information for a UE, the RACH configuration information indicating a physical random access channel, PRACH, configuration period of the UE and a time-frequency resource for a random access occasion, RO, of the UE within the PRACH configuration period; receiving, from the gNB, RACH configuration information for the IAB UE, the RACH configuration information for the IAB UE comprising a scaling factor associated with a PRACH configuration period of the IAB UE and a time offset associated with a time-frequency resource for an RO of the IAB UE; determining the PRACH configuration period of the IAB UE based on the PRACH configuration period of the UE and the scaling factor; determining the time-frequency resource for the RO of the IAB UE based on the time-frequency resource for the RO of the UE, the time offset and the determined PRACH configuration period of the IAB UE; and transmitting, to the gNB, a preamble for random access using the determined PRACH configuration period of the IAB UE and the determined time-frequency resource for the RO of the IAB UE. receiving, from a next generation Node B, gNB, random access channel, RACH, configuration information for a UE, the RACH configuration information indicating a physical random access channel, PRACH, configuration period of the UE and a time-frequency resource for a random access occasion, RO, of the UE within the PRACH configuration period; receiving, from the gNB, RACH configuration information for the IAB UE, the RACH configuration information for the IAB UE comprising a scaling factor associated with a PRACH configuration period of the IAB UE and a time offset associated with a time-frequency resource for an RO of the IAB UE; determining the PRACH configuration period of the IAB UE based on the PRACH configuration period of the UE and the scaling factor; determining the time-frequency resource for the RO of the IAB UE based on the time-frequency resource for the RO of the UE, the time offset and the determined PRACH configuration period of the IAB UE; and transmitting, to the gNB, a preamble for random access using the determined PRACH configuration period of the IAB UE and the determined time-frequency resource for the RO of the IAB UE.
Knitted fabric comprising regions (10~50) having different cushioning properties, which is designed as a two-layer knitted fabric and between stitch rows of which, at least one weft thread (15, S) is inserted in at least one portion, the knitted fabric layers (1, 2) being connected to one another in regions (10.1, 20.1, 30.1) which have no or a low level of cushioning and not being connected to one another in regions (10, 20, 30, 40, 50) which have a higher level of cushioning, characterized in that a plurality of regions (10, 20, 30, 40, 50) which have a different, higher level of cushioning are provided, which regions each comprise a plurality of consecutive stitch rows in which the knitted layers (1, 2) are not connected to one another, so that these regions (10, 20, 30, 40, 50) are only filled by weft threads (15, S) between the knitted layers (1, 2), these regions (10, 20, 30, 40, 50) being distinguished by a different number of consecutive stitch rows having weft thread insertion without connection between the knitted layers (1, 2), and thus being distinguished by the number of weft threads (15, S) between the knitted layers (1, 2).
An apparatus comprising: an equalizer circuit configured and arranged to modify a frequency component of a received signal based on an error signal; an absolute value circuit configured and arranged to assign a sign to the received signal by generating an output that is an absolute value of the received signal; a comparator circuit configured and arranged to process the signal output from the absolute value circuit to generate a signal having a voltage level limited to a predetermined value; a sign detection circuit configured and arranged to detect a sign of a signal output by the equalizer circuit and to assign a sign to the output of the comparator circuit based upon the detected sign; and a summation circuit configured and arranged to sum the output of the equalizer with the output of the comparator circuit having the sign assigned thereto, and to provide the sum to the equalizer as the error signal. an equalizer circuit configured and arranged to modify a frequency component of a received signal based on an error signal; an absolute value circuit configured and arranged to assign a sign to the received signal by generating an output that is an absolute value of the received signal; a comparator circuit configured and arranged to process the signal output from the absolute value circuit to generate a signal having a voltage level limited to a predetermined value; a sign detection circuit configured and arranged to detect a sign of a signal output by the equalizer circuit and to assign a sign to the output of the comparator circuit based upon the detected sign; and a summation circuit configured and arranged to sum the output of the equalizer with the output of the comparator circuit having the sign assigned thereto, and to provide the sum to the equalizer as the error signal.
Solar testing device (11; 31; 61) for testing a solar cell or a solar module comprising a test area (12; 62) for at least one solar cell or solar module to be tested, a light emitting area (16; 66), arranged opposite to the test area (12; 62), comprising an array of LED-modules (17, 17A; 67, 67A) arranged in a pitch to each other, and sidewall mirrors (21; 71), extending in the direction from the light emitting area (16; 66) to the test area (12; 62), characterized in that the ratio between the distance between the light emitting area (16; 66) and the test area (12; 62) and the pitch of the LED-modules (17, 17A; 67, 67A) lies in a range of 1.5 to 3.5, preferably in a range of 2.3 to 2.7, and in that the sidewall mirrors (21; 71) are inclined against the light emitting area (16; 66), in particular at an angle (β) of 91° to 95°, preferably 92° to 94°, whereby the angularities of the sidewall mirrors (21; 71) are in opposite directions.
A sleep disordered breathing therapy system, comprising: an implant unit implantable in a region of a subject including at least one of a neck, an underside of a chin, and a head of the subject and an external unit, comprising: a housing configured for location external to a body of the subject and to retain a battery; a primary antenna (50, 150) associated with the housing; and at least one processor configured for electrical communication with the battery and the primary antenna, the at least one processor being configured to: generate a primary signal using power supplied by the battery, the primary signal including a pulse train, the pulse train including a plurality of stimulation pulses provided over a period of at least three hours in duration and configured to cause stimulation of a hypoglossal nerve; and to cause transmission of the primary signal from the primary antenna during a treatment session of at least three hours in duration, to the implant unit. an implant unit implantable in a region of a subject including at least one of a neck, an underside of a chin, and a head of the subject and an external unit, comprising: a housing configured for location external to a body of the subject and to retain a battery; a primary antenna (50, 150) associated with the housing; and at least one processor configured for electrical communication with the battery and the primary antenna, the at least one processor being configured to: generate a primary signal using power supplied by the battery, the primary signal including a pulse train, the pulse train including a plurality of stimulation pulses provided over a period of at least three hours in duration and configured to cause stimulation of a hypoglossal nerve; and to cause transmission of the primary signal from the primary antenna during a treatment session of at least three hours in duration, to the implant unit. a housing configured for location external to a body of the subject and to retain a battery; a primary antenna (50, 150) associated with the housing; and at least one processor configured for electrical communication with the battery and the primary antenna, the at least one processor being configured to: generate a primary signal using power supplied by the battery, the primary signal including a pulse train, the pulse train including a plurality of stimulation pulses provided over a period of at least three hours in duration and configured to cause stimulation of a hypoglossal nerve; and to cause transmission of the primary signal from the primary antenna during a treatment session of at least three hours in duration, to the implant unit. generate a primary signal using power supplied by the battery, the primary signal including a pulse train, the pulse train including a plurality of stimulation pulses provided over a period of at least three hours in duration and configured to cause stimulation of a hypoglossal nerve; and to cause transmission of the primary signal from the primary antenna during a treatment session of at least three hours in duration, to the implant unit.
A method for reducing emissions in a boiler having a first fuel elevation, a second fuel elevation, a third fuel elevation, a fourth fuel elevation, and a fifth fuel elevation, each of the first through fifth fuel elevations comprising a nozzle operable to deliver fuel to a combustion area of the boiler, wherein the fuel comprises pulverized coal, the method comprising the steps of: delivering fuel to the combustion area of the boiler through the nozzles associated with the first fuel elevation and the second fuel elevation; pre-igniting at least a portion of the fuel delivered through the nozzles associated with the first fuel elevation and the second fuel elevation prior to delivering the fuel through the nozzles associated with the first fuel elevation and the second fuel elevation, wherein each nozzle is in fluid communication with a conduit, wherein fuel delivered through the nozzles associated with the first fuel elevation and the second fuel elevation flows through the conduits before it flows through the nozzles associated with the first fuel elevation and the second fuel elevation, and is pre-ignited in the conduits, and wherein the conduits of third through fifth elevations (203, 204, 205) do not operate to pre-ignite any portion of the pulverized coal flowing through those conduits. delivering fuel to the combustion area of the boiler through the nozzles associated with the first fuel elevation and the second fuel elevation; pre-igniting at least a portion of the fuel delivered through the nozzles associated with the first fuel elevation and the second fuel elevation prior to delivering the fuel through the nozzles associated with the first fuel elevation and the second fuel elevation, wherein each nozzle is in fluid communication with a conduit, wherein fuel delivered through the nozzles associated with the first fuel elevation and the second fuel elevation flows through the conduits before it flows through the nozzles associated with the first fuel elevation and the second fuel elevation, and is pre-ignited in the conduits, and wherein the conduits of third through fifth elevations (203, 204, 205) do not operate to pre-ignite any portion of the pulverized coal flowing through those conduits.