mhurhangee/ep-ind-claims huggingface dataset:
A head-up display for displaying an image as a virtual image, the head-up display comprising: a display device configured to display the image; and a projection optical system for enlarging and projecting the image, wherein the projection optical system comprises a lens element (123; 124) and a reflecting mirror, a light beam corresponding to a center of the virtual image is defined as a reference light beam (Lc), the lens element (123; 124) comprises an entrance surface on which light of the image displayed by the display device is incident, an exit surface from which light of the image emerges, a first edge portion (123a; 124a) above the reference light beam (Lc), and a second edge portion (123b; 124b) below the reference light beam (Lc), the lens element (123; 124) is disposed to be inclined with respect to the reference light beam (Lc) to allow the exit surface to face downward, and the second edge portion (123b; 124b) is inclined so that, when light emitted from an upper end of the display device travels through the entrance surface, the second edge portion (123b; 124b), and the exit surface in this order, light emerging from the exit surface reaches and is reflected below a central portion of the reflecting mirror and light reflected below the central portion of the reflecting mirror reaches outside a viewpoint region of an observer. a display device configured to display the image; and a projection optical system for enlarging and projecting the image, wherein the projection optical system comprises a lens element (123; 124) and a reflecting mirror, a light beam corresponding to a center of the virtual image is defined as a reference light beam (Lc), the lens element (123; 124) comprises an entrance surface on which light of the image displayed by the display device is incident, an exit surface from which light of the image emerges, a first edge portion (123a; 124a) above the reference light beam (Lc), and a second edge portion (123b; 124b) below the reference light beam (Lc), the lens element (123; 124) is disposed to be inclined with respect to the reference light beam (Lc) to allow the exit surface to face downward, and the second edge portion (123b; 124b) is inclined so that, when light emitted from an upper end of the display device travels through the entrance surface, the second edge portion (123b; 124b), and the exit surface in this order, light emerging from the exit surface reaches and is reflected below a central portion of the reflecting mirror and light reflected below the central portion of the reflecting mirror reaches outside a viewpoint region of an observer.
A sealing element for sealing a drill-hole for a therein introducible fastening means, the sealing element comprises: a sealing element head adapted for covering the drill-hole; a shaft element (3, 4) arranged at the sealing element head adapted for introduction into the drill-hole; an opening, which extends through the sealing element head and the shaft element (3, 4); the shaft element (3, 4) consists of two parts, wherein the first part of the shaft element, which is arranged closer to the sealing element head is adapted in such a way that in assembled condition it fits closely to a fastening means introducible into the opening but not to the wall of the drill-hole; the second part of the shaft element, which is arranged further away from the sealing element head is adapted in such a way that in assembled condition it does not fit closely to a fastening means introducible into the opening, and the first part and the second part of the shaft element in assembled condition are arranged almost fully inside the drill-hole, characterized in that the second part of the shaft element comprises radially arranged lamellas, which are adapted in such a way that in assembled condition they fit closely to the wall of the drill-hole. a sealing element head adapted for covering the drill-hole; a shaft element (3, 4) arranged at the sealing element head adapted for introduction into the drill-hole; an opening, which extends through the sealing element head and the shaft element (3, 4); the shaft element (3, 4) consists of two parts, wherein the first part of the shaft element, which is arranged closer to the sealing element head is adapted in such a way that in assembled condition it fits closely to a fastening means introducible into the opening but not to the wall of the drill-hole; the second part of the shaft element, which is arranged further away from the sealing element head is adapted in such a way that in assembled condition it does not fit closely to a fastening means introducible into the opening, and the first part of the shaft element, which is arranged closer to the sealing element head is adapted in such a way that in assembled condition it fits closely to a fastening means introducible into the opening but not to the wall of the drill-hole; the second part of the shaft element, which is arranged further away from the sealing element head is adapted in such a way that in assembled condition it does not fit closely to a fastening means introducible into the opening, and the first part and the second part of the shaft element in assembled condition are arranged almost fully inside the drill-hole, the second part of the shaft element comprises radially arranged lamellas, which are adapted in such a way that in assembled condition they fit closely to the wall of the drill-hole.
A circuit for providing damping of resonance caused by an inductor-capacitor, LC (16, 20), circuit in an electromagnetic interference, EMI, filter, the circuit for providing damping being characterized by comprising: a voltage feedback circuit comprising a voltage sensor configured for sensing a common-mode voltage from the LC circuit; the voltage feedback circuit further comprising a linear amplifier configured to output a second amplified voltage indicative of the sensed common-mode voltage, an active damping circuit comprising at least one capacitor (C d) configured to receive a common-mode current from the LC circuit; the active damping circuit further comprising a current sensor configured for sensing the common-mode current from the LC circuit through the at least one capacitor (C d), a linear amplifier that, along with a power amplifier circuit, has a low-pass characteristic that includes a corner frequency, wherein the linear amplifier is configured to output a first amplified voltage indicative of the sensed common-mode current, and the corner frequency of the low-pass characteristic is set to a value that is greater than the resonant frequency of the LC circuit; the active damping circuit further comprising an adder circuit configured to sum the first and second amplified voltages; and the power amplifier is configured to receive the summed voltage and configured to output a voltage which creates a damping impedance for frequencies of the common-mode current less than the corner frequency, or for frequencies of the common-mode current greater than the corner frequency, creates a very low impedance to thereby provide a path to ground for the common-mode current. a voltage feedback circuit comprising a voltage sensor configured for sensing a common-mode voltage from the LC circuit; the voltage feedback circuit further comprising a linear amplifier configured to output a second amplified voltage indicative of the sensed common-mode voltage, an active damping circuit comprising at least one capacitor (C d) configured to receive a common-mode current from the LC circuit; the active damping circuit further comprising a current sensor configured for sensing the common-mode current from the LC circuit through the at least one capacitor (C d), a linear amplifier that, along with a power amplifier circuit, has a low-pass characteristic that includes a corner frequency, wherein the linear amplifier is configured to output a first amplified voltage indicative of the sensed common-mode current, and the corner frequency of the low-pass characteristic is set to a value that is greater than the resonant frequency of the LC circuit; the active damping circuit further comprising an adder circuit configured to sum the first and second amplified voltages; and the power amplifier is configured to receive the summed voltage and configured to output a voltage which creates a damping impedance for frequencies of the common-mode current less than the corner frequency, or for frequencies of the common-mode current greater than the corner frequency, creates a very low impedance to thereby provide a path to ground for the common-mode current.
Disk brake assembly comprising a brake anchor plate for fastening to a vehicle as well as a brake pad assembly, wherein the brake anchor plate has at least one location opening for receiving a guide element that has a first portion for guiding and supporting the brake pad assembly and a second portion for connecting to the brake anchor plate, wherein the second portion has a textured surface, by which the guide element may be press-fitted at least partially into the location opening, characterized in that the textured surface of the second portion comprises grooves that are disposed transversely of the press-in direction of the guide element.
An apparatus for applying electromagnetic energy at a frequency in the frequency range of 1MHz to 100 GHz to heat an object, the apparatus comprising: a degenerate cavity (62, 64, 800): at least one source of electromagnetic energy and a plurality of radiating elements (18, 32, 34) for applying energy to heat an object placed in the degenerate cavity; and a processor configured to: assign respective weights to a plurality of resonant modes sharing a mode family, wherein two different weights are assigned for at least two of the plurality of resonant modes, and the modes in the mode family are all of the same type and supported by the cavity at a single frequency, the type being one of transverse electric, transverse magnetic, transverse electromagnetic and hybrid, and regulate the at least one source to apply electromagnetic energy for exciting the plurality of resonant modes according to the assigned weights, by adjusting respective amounts of electromagnetic energy exciting each of the plurality of resonant modes. a degenerate cavity (62, 64, 800): at least one source of electromagnetic energy and a plurality of radiating elements (18, 32, 34) for applying energy to heat an object placed in the degenerate cavity; and at least one source of electromagnetic energy and a plurality of radiating elements (18, 32, 34) for applying energy to heat an object placed in the degenerate cavity; and a processor configured to: assign respective weights to a plurality of resonant modes sharing a mode family, wherein two different weights are assigned for at least two of the plurality of resonant modes, and the modes in the mode family are all of the same type and supported by the cavity at a single frequency, the type being one of transverse electric, transverse magnetic, transverse electromagnetic and hybrid, and regulate the at least one source to apply electromagnetic energy for exciting the plurality of resonant modes according to the assigned weights, by adjusting respective amounts of electromagnetic energy exciting each of the plurality of resonant modes. assign respective weights to a plurality of resonant modes sharing a mode family, wherein two different weights are assigned for at least two of the plurality of resonant modes, and the modes in the mode family are all of the same type and supported by the cavity at a single frequency, the type being one of transverse electric, transverse magnetic, transverse electromagnetic and hybrid, and regulate the at least one source to apply electromagnetic energy for exciting the plurality of resonant modes according to the assigned weights, by adjusting respective amounts of electromagnetic energy exciting each of the plurality of resonant modes.
A probiotic composition for use in treating animals, the composition comprising: a bacteria spore dry powder blend comprising 40 to 60% table salt and 60 to 40% of one or more Bacillus species in spore form that combined make up 0.1 to 10% by weight of the composition; 0.05 to 0.5% by weight total of one or more of acids or salts of the acids selected from sorbic acid, benzoic acid, citric acid, sodium propionate, sodium benzoate, and potassium sorbate; and a thickener; sodium chloride in addition to the table salt in the bacteria spore dry powder blend; potassium chloride; and water; and wherein the composition has a pH of 4.0 to 5.5. a bacteria spore dry powder blend comprising 40 to 60% table salt and 60 to 40% of one or more Bacillus species in spore form that combined make up 0.1 to 10% by weight of the composition; 0.05 to 0.5% by weight total of one or more of acids or salts of the acids selected from sorbic acid, benzoic acid, citric acid, sodium propionate, sodium benzoate, and potassium sorbate; and a thickener; sodium chloride in addition to the table salt in the bacteria spore dry powder blend; potassium chloride; and water; and wherein the composition has a pH of 4.0 to 5.5.
A fiber bundle supply device comprising: plural bobbin holder shafts (321, 322) each of which supports a bobbin around which a fiber bundle is wound; and a turntable on which the bobbin holder shafts (321, 322) are arranged in a concentric pattern and which rotates around a central axis of said concentric pattern, characterized by comprising a first fiber bundle guide and a second fiber bundle guide which are installed on the turntable and which rotate with the turntable, wherein the bobbin holder shafts (321, 322) are configured from at least a first bobbin holder shaft which supports a first bobbin, and a second bobbin holder shaft which supports a second bobbin, wherein if the fiber bundle wound around the first bobbin has been unwound and little remains, the turntable is rotated, thereby the first fiber bundle guide pushing up the fiber bundle unwound from the first bobbin and guiding the fiber bundle to be restricted in the prescribed trajectory, and when the rotation of the turntable is terminated, the second fiber bundle guide superposing the end portion of the fiber bundle wound around the second bobbin on the fiber bundle unwound from the first bobbin (B 1), and the fiber bundle of the first bobbin and the fiber bundle of the second bobbin are spliced, thereby unwinding of the fiber bundle wound around the second bobbin is started. plural bobbin holder shafts (321, 322) each of which supports a bobbin around which a fiber bundle is wound; and a turntable on which the bobbin holder shafts (321, 322) are arranged in a concentric pattern and which rotates around a central axis of said concentric pattern, characterized by comprising a first fiber bundle guide and a second fiber bundle guide which are installed on the turntable and which rotate with the turntable, wherein the bobbin holder shafts (321, 322) are configured from at least a first bobbin holder shaft which supports a first bobbin, and a second bobbin holder shaft which supports a second bobbin, wherein if the fiber bundle wound around the first bobbin has been unwound and little remains, the turntable is rotated, thereby the first fiber bundle guide pushing up the fiber bundle unwound from the first bobbin and guiding the fiber bundle to be restricted in the prescribed trajectory, and when the rotation of the turntable is terminated, the second fiber bundle guide superposing the end portion of the fiber bundle wound around the second bobbin on the fiber bundle unwound from the first bobbin (B 1), and the fiber bundle of the first bobbin and the fiber bundle of the second bobbin are spliced, thereby unwinding of the fiber bundle wound around the second bobbin is started.
A nonmetal material modified thermoplastic resin composite which comprises materials by weight percentages as follows: 50-70% of filling; 25-40% of polypropylene; 3-6% of maleic anhydride modified polypropylene; 1-3% of titanium dioxide; and 1-2% antioxidant; wherein said filling is obtainable by mixing and stirring of stearic acid with weight percentage of 1∼5% and a compound selected from wollastonite, calcium carbonate or a mixture of wollastonite and calcium carbonate with weight percentage of 95∼99% at a temperature of 90°C-100°C for 15-30 min by using a high-speed mixer to achieve full mixing and colliding of the stearic acid and the compound. 50-70% of filling; 25-40% of polypropylene; 3-6% of maleic anhydride modified polypropylene; 1-3% of titanium dioxide;
A method of producing an alumina-supported catalyst, which comprises the following steps: a first impregnation step in which an initial γ-alumina support material is impregnated with a source of a 2-valent metal capable of forming a spinel compound with alumina and with a stabiliser, in which the stabiliser comprises lanthanum; where the source of the 2-valent metal comprises a source of cobalt, zinc, manganese, nickel or iron; a first calcination step in which the impregnated alumina support material is calcined at a temperature in the range of 900°C to 1200°C to produce a modified alumina support material; a second impregnation step in which the modified alumina support material is impregnated with a source of cobalt; and a second calcination step in which the impregnated modified support material is calcined at a temperature in the range of 150°C to 600°C.
An airbag unit for a motor vehicle safety device, the unit comprising: an inflatable airbag formed of flexible material and provided in a rolled and/or folded package, the package being held under compression by a cover which is formed of pulp material, the airbag unit being characterised in that said cover extends around at least part of the package and has a predetermined stable shape, wherein the cover imparts said predetermined stable shape to the unit.
Vehicle, in particular a motor vehicle, comprising a system for cleaning sensors of a vehicle, comprising at least one cleaning apparatus which is configured to clean a multiplicity of sensors of a vehicle; and a control apparatus which is configured to control the at least one cleaning apparatus, wherein the control apparatus is also configured to select a plurality of sensors from the multiplicity of sensors, which are intended to be cleaned, on the basis of at least one situation parameter and to determine the order in which the selected plurality of sensors are intended to be cleaned, characterized in that the vehicle also comprises a driving assistance system for automated driving, which driving assistance system is configured to determine a driving strategy and to automatically steer and/or brake and/or accelerate the vehicle on the basis of the driving strategy, wherein the driving assistance system uses at least some of the multiplicity of sensors, and in that the control apparatus is also configured to select the plurality of sensors from the multiplicity of sensors and to determine the order in which the selected plurality of sensors are cleaned on the basis of priorities of the plurality of sensors for the determined driving strategy. at least one cleaning apparatus which is configured to clean a multiplicity of sensors of a vehicle; and a control apparatus which is configured to control the at least one cleaning apparatus, wherein the control apparatus is also configured to select a plurality of sensors from the multiplicity of sensors, which are intended to be cleaned, on the basis of at least one situation parameter and to determine the order in which the selected plurality of sensors are intended to be cleaned, characterized in that the vehicle also comprises a driving assistance system for automated driving, which driving assistance system is configured to determine a driving strategy and to automatically steer and/or brake and/or accelerate the vehicle on the basis of the driving strategy, wherein the driving assistance system uses at least some of the multiplicity of sensors, and in that the control apparatus is also configured to select the plurality of sensors from the multiplicity of sensors and to determine the order in which the selected plurality of sensors are cleaned on the basis of priorities of the plurality of sensors for the determined driving strategy.
A method for a device operating in a wireless communication system, the method comprising: generating a medium access control, MAC, protocol data unit, PDU, including a MAC PDU subheader, the MAC PDU subheader including a first octet of 8 bits, wherein the first octet includes a logical channel identity, LCID, field consisting of 5 bits; and transmitting the generated MAC PDU to a second device in the wireless communication system, wherein, based on the 5 bits of the LCID field being set to a specific value, the LCID field indicates an extended LCID, eLCID, field comprising more than 5 bits that identify either a corresponding logical channel of a MAC service data unit, SDU, or a corresponding type of a MAC control element, CE, wherein the eLCID field is included in a second octet of 8 bits following the first octet of 8 bits and the second octet is included in the MAC PDU subheader, otherwise, the second octet including the eLCID field is not included in the MAC PDU subheader and the 5 bits of the LCID field identify either a corresponding logical channel of a MAC SDU or a corresponding type of a MAC CE, and wherein the generated MAC PDU further includes either a MAC SDU or a MAC CE corresponding to a respective one of the LCID or eLCID. generating a medium access control, MAC, protocol data unit, PDU, including a MAC PDU subheader, the MAC PDU subheader including a first octet of 8 bits, wherein the first octet includes a logical channel identity, LCID, field consisting of 5 bits; and transmitting the generated MAC PDU to a second device in the wireless communication system, wherein, based on the 5 bits of the LCID field being set to a specific value, the LCID field indicates an extended LCID, eLCID, field comprising more than 5 bits that identify either a corresponding logical channel of a MAC service data unit, SDU, or a corresponding type of a MAC control element, CE, wherein the eLCID field is included in a second octet of 8 bits following the first octet of 8 bits and the second octet is included in the MAC PDU subheader, otherwise, the second octet including the eLCID field is not included in the MAC PDU subheader and the 5 bits of the LCID field identify either a corresponding logical channel of a MAC SDU or a corresponding type of a MAC CE, and wherein the generated MAC PDU further includes either a MAC SDU or a MAC CE corresponding to a respective one of the LCID or eLCID.