mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a base station, comprising: configuring a user equipment to send a power headroom report control element comprising a media access control, MAC, subheader in uplink, the MAC subheader including a logical channel identifier, LCID, wherein the LCID indicates a bitmap included in the power headroom report control element, wherein the bitmap includes a plurality of bits, each of the plurality of bits being linked to a particular one of power headroom reports for a plurality of secondary cells, and wherein the bitmap indicates which power headroom reports for the secondary cells are being reported; receiving the power headroom report control element from the user equipment; and processing the received power headroom report control element based on the configuration of the user equipment. configuring a user equipment to send a power headroom report control element comprising a media access control, MAC, subheader in uplink, the MAC subheader including a logical channel identifier, LCID, wherein the LCID indicates a bitmap included in the power headroom report control element, wherein the bitmap includes a plurality of bits, each of the plurality of bits being linked to a particular one of power headroom reports for a plurality of secondary cells, and wherein the bitmap indicates which power headroom reports for the secondary cells are being reported; the MAC subheader including a logical channel identifier, LCID, wherein the LCID indicates a bitmap included in the power headroom report control element, wherein the bitmap includes a plurality of bits, each of the plurality of bits being linked to a particular one of power headroom reports for a plurality of secondary cells, and wherein the bitmap indicates which power headroom reports for the secondary cells are being reported; receiving the power headroom report control element from the user equipment; and processing the received power headroom report control element based on the configuration of the user equipment.
Operator control unit for a vehicle, having a housing and an operator control element, wherein the housing is designed to accommodate the operator control element, and having a front cover which has, at least in part, a transparent, touch-sensitive operator control panel for operating the operator control element, wherein the front cover has a rear side facing the housing, and wherein the front cover is mounted elastically in the housing, and having at least one actuator, wherein the at least one actuator is arranged on the rear side of the front cover in order to generate haptic excitation of the front cover, characterized in that the at least one actuator is elastically fastened to the rear side of the front cover by means of an adhesive layer. and having a front cover which has, at least in part, a transparent, touch-sensitive operator control panel for operating the operator control element, wherein the front cover has a rear side facing the housing, and wherein the front cover is mounted elastically in the housing, and having at least one actuator, wherein the at least one actuator is arranged on the rear side of the front cover in order to generate haptic excitation of the front cover, characterized in that the at least one actuator is elastically fastened to the rear side of the front cover by means of an adhesive layer.
A device designed for the unloading of waste, which device consists of a raised platform and of inclined access ramps, wherein skips serving as receptacles for the waste can be placed on the ground next to the raised platform, the device comprising: - a plurality of juxtaposed supporting elements forming a raised horizontal surface, said supporting elements consisting of two vertical uprights designed for resting on a surface and of a horizontal top cross member, - a plurality of access elements forming at least one continuous inclined surface from the bearing surface to the raised horizontal surface, said access elements consisting of two vertical uprights resting on the bearing surface and of an inclined top cross member, and - fastening means between the supporting elements and the access elements, the supporting elements and the access elements forming modular elements having the shape of an inverted U, the branches of the U giving the width of the modular element in question, characterised in that entrance means with one or more articulated opening elements allowing access into the ground-level zone situated under the platform and previously partitioned are arranged on at least one modular element. - a plurality of juxtaposed supporting elements forming a raised horizontal surface, said supporting elements consisting of two vertical uprights designed for resting on a surface and of a horizontal top cross member, - a plurality of access elements forming at least one continuous inclined surface from the bearing surface to the raised horizontal surface, said access elements consisting of two vertical uprights resting on the bearing surface and of an inclined top cross member, and - fastening means between the supporting elements and the access elements, the supporting elements and the access elements forming modular elements having the shape of an inverted U, the branches of the U giving the width of the modular element in question,
Oxysterol of formula: wherein R1 is chosen from the group consisting of H and OH, R2 is chosen from the group consisting of H and OH, R4 is chosen from the group consisting of H, OH, Y is chosen from the group consisting of CHR3 and C=O, and R3 is chosen from the group consisting of H and OH, for use in the treatment or in the prevention of infections caused by a naked virus selected from the group consisting of rotavirus, papillomavirus and rhinovirus.
Food storage container for a household refrigeration appliance, with a tray for storing the food, with a lid separate therefrom which can be placed onto the tray to close the tray, and with a ventilation apparatus, with which it is possible for an air exchange to be performed between the surrounding area and the interior of the food storage container, wherein the ventilation apparatus is a module that is separate from the lid and from the tray which is arranged with a coupling facility on the front side of the lid in a releasable manner, wherein the coupling facility has a first coupling element (39, 43), which is arranged on the module, and has a second coupling element (33 to 37, 45), which is arranged on the lid, wherein the coupling facility with the coupling elements (39, 43, 33 to 37, 45) is embodied such that, during the coupling, there is a predefined combining of the module with the lid in the depth direction (z) of the food storage container, characterised in that subsequently there is a predefined displacement of the module and the lid relative to one another in the width direction (x) of the food storage container, in order to reach the intercoupled end position.
Method for assisted piloting of an aircraft provided with a rotary wing and a pusher unit that comprises at least one pusher propeller, each propeller comprising a plurality of first blades, the rotary wing comprising at least one rotor provided with a plurality of second blades, in which method a command from a pilot of the aircraft which is given for requesting a movement in a longitudinal or vertical direction is translated into a setpoint of acceleration in said direction, and said acceleration setpoint is then converted, using predetermined relationships, into at least one longitudinal attitude hold setpoint (θ*) that is transmitted to a first automatic longitudinal attitude hold system that controls a cyclic longitudinal pitch of the second blades of the rotary wing in order to conform to said longitudinal attitude hold setpoint (θ*), and into a first load factor hold setpoint (Nx*) in a longitudinal direction of the aircraft that is parallel to a roll axis of said aircraft, which load factor hold setpoint is transmitted to a second automatic system for holding said load factor that controls a common pitch of the first blades of the pusher unit in order to conform to said first setpoint (Nx*), and in which method, when said command is a command for movement in a longitudinal direction of the aircraft that is parallel to a roll axis of said aircraft, said command for movement in a longitudinal direction is translated into a longitudinal acceleration setpoint, and said longitudinal acceleration setpoint is then converted, using predetermined relationships only, into a longitudinal attitude hold setpoint (θ*) which is transmitted to a first automatic longitudinal attitude hold system, and into a first load factor hold setpoint (Nx*), said method being characterised in that said first load factor hold setpoint (Nx*) is determined by the following second longitudinal control relationship: Nx * = b • γ x * / g − k / a + b where Nx* represents said first load factor hold setpoint, γ x * represents the longitudinal acceleration setpoint, g represents gravitational acceleration, • represents the multiplication sign, / represents the division sign, a represents a first longitudinal constant, b represents a second longitudinal constant and k represents a third longitudinal constant, and in that, when the pilot does not give a command for movement in the longitudinal direction, the first load factor setpoint (Nx*) is equal to the sine of the current longitudinal attitude (θ), the longitudinal acceleration setpoint (γ x *) being zero.
Lighting means having a gas volume in a glass bulb, a gas lighting chamber being formed, which is at least largely, preferably completely, free of any shielding, and an HF energy injection device for exciting the gas volume with surface waves and having a coupling structure which comprises a coaxial jacket, a front plate and a coupling slot for impressing the surface waves, characterized in that the HF energy injection device further has a central conductor that is led into the gas volume, is isolated galvanically from the coupling structure and from the gas volume and is arranged on the longitudinal axis of the coaxial jacket, and the central conductor projects beyond the coaxial jacket at a distance from the coupling structure, the central conductor in the region projecting beyond the coaxial jacket still being located within the gas volume and thus comprised in the gas volume, in order to form therewith, during operation, a surface wave extending along the central conductor via the coupling structure of the coaxial HF energy injection device and to set the gas volume into the plasma state.
An asymmetric hollow fiber membrane for gas separation made of an aromatic polyimide soluble in an organic polar solvent, wherein an orientation index is 1.3 or less, a separation coefficient α (P'O 2 /P'N 2) which represents a ratio of permeation rate of oxygen gas and nitrogen gas at 40 °C at a pressure of 1 MPaG is 5.6 or more, a tensile elongation at break is 20 % or more, and an oxygen gas permeation rate P'O 2 at 40 °C is 6.0 × 10 -5 cm 3 /cm 2 ·sec·cmHg or more; and wherein the orientation index is represented by the formula: (A ∥/⊥ in Y)/(A ∥/⊥ in X), wherein (A ∥/⊥ in X) denotes (absorbance at 1500 cm -1)/(absorbance at 1715 cm -1) obtained by the measurement in which incident light enters from a hollow fiber length direction and reflected light passes through the polarizer and only s-polarized light is introduced to a detector, which measures infrared absorption spectrum, and wherein (A ∥/⊥ in Y) denotes (absorbance at 1500 cm -1)/(absorbance at 1715 cm -1) obtained by the measurement in which incident light enters from a vertical direction to a length direction of a hollow fiber and a reflected light passes through the polarizer and only s-polarized light is introduced to a detector, which measures infrared absorption spectrum; and wherein the tensile elongation at break is elongation percentage at break obtained by measurement conducted with an effective length of 20 mm, a tensile rate of 10 mm/min using a tensile tester at 23 °C; and wherein the soluble aromatic polyimide comprises a repeating unit represented by general formula: wherein in the general formula, 25 to 100 mol% of A is a tetravalent unit based on a biphenyl structure represented by formula: 0 to 70 mol% of A is a tetravalent unit based on a diphenylhexafluoropropane structure represented by formula: and 0 to 30 mol% of A is a tetravalent unit based on a phenyl structure represented by formula: and in general formula, 30 to 70 mol% of R is a divalent unit based on a diphenylene sulfone structure represented by formula: where R1 and R2 in formula are a hydrogen atom or a lower alkyl group, and 30 to 70 mol% of R is a divalent unit based on a biphenyl structure represented by formula: where X in formula is a chlorine or bromine atom and n is 1 to 3.
A control apparatus for a vehicle, the vehicle including: an internal combustion engine including a port injection valve, the port injection valve being configured to inject fuel into an intake passage of the internal combustion engine; a fuel tank in which the fuel is stored; an electric feed pump configured to suck up the fuel from the fuel tank and feed the fuel to the port injection valve; a fuel pressure sensor configured to detect a pressure of the fuel that is fed to the port injection valve; a motor configured to perform cranking of the internal combustion engine at start time of the internal combustion engine; and an electric storage apparatus configured to feed electric power to the electric feed pump and the motor, the control apparatus comprising an electronic control unit configured to: control the electric feed pump based on a detection value of the fuel pressure sensor; control the motor in order to start the internal combustion engine; and control the electric feed pump and the motor such that the electric storage apparatus feeds electric power to the motor in preference to the electric feed pump, when a first electric power is less than a determination threshold, the first electric power being an electric power that the electric storage apparatus is able to output at the start time of the internal combustion engine, characterized in that the electronic control unit is configured to control the electric feed pump based on a first target value for the pressure of the fuel when the first electric power is greater than the determination threshold, and the electronic control unit is configured to control the electric feed pump based on a second target value for the pressure of the fuel when the first electric power is less than the determination threshold, said second target value being lower than said first target value. an internal combustion engine including a port injection valve, the port injection valve being configured to inject fuel into an intake passage of the internal combustion engine; a fuel tank in which the fuel is stored; an electric feed pump configured to suck up the fuel from the fuel tank and feed the fuel to the port injection valve; a fuel pressure sensor configured to detect a pressure of the fuel that is fed to the port injection valve; a motor configured to perform cranking of the internal combustion engine at start time of the internal combustion engine; and an electric storage apparatus configured to feed electric power to the electric feed pump and the motor, the control apparatus comprising an electronic control unit configured to: control the electric feed pump based on a detection value of the fuel pressure sensor; control the motor in order to start the internal combustion engine; and an electronic control unit configured to: control the electric feed pump based on a detection value of the fuel pressure sensor; control the motor in order to start the internal combustion engine; and control the electric feed pump based on a detection value of the fuel pressure sensor; control the motor in order to start the internal combustion engine; and
A novel strain Agrobacterium tumefaciens deposited in the IAFB Collection of Industrial Microorganisms of Institute of Agricultural and Food Industry under the number KKP 2039p.
Impact attenuator comprising: - an impact head, coupled to; - a first end of an energy absorption body, which energy absorption body is: ∘ arranged for fixation to an external structure at a second end opposing the first end of the energy absorption body, ∘ configured to at least partly absorb or dissipate energy from a collision of an object with the impact head, and ∘ comprising a first part and a second part extending substantially lengthwise behind each other, - a first and a second cutting edge, wherein - the first cutting edge is arranged for splitting the first part of the energy absorption body upon impact of an object colliding with the impact head, characterized in that the first and second part are mutually moveable; and the second cutting edge is arranged for consecutively splitting the second part of the energy absorption body upon impact of an object colliding with the impact head. - an impact head, coupled to; - a first end of an energy absorption body, which energy absorption body is: ∘ arranged for fixation to an external structure at a second end opposing the first end of the energy absorption body, ∘ configured to at least partly absorb or dissipate energy from a collision of an object with the impact head, and ∘ comprising a first part and a second part extending substantially lengthwise behind each other, ∘ arranged for fixation to an external structure at a second end opposing the first end of the energy absorption body, ∘ configured to at least partly absorb or dissipate energy from a collision of an object with the impact head, and ∘ comprising a first part and a second part extending substantially lengthwise behind each other, - a first and a second cutting edge, wherein - the first cutting edge is arranged for splitting the first part of the energy absorption body upon impact of an object colliding with the impact head, characterized in that the first and second part are mutually moveable; and the second cutting edge is arranged for consecutively splitting the second part of the energy absorption body upon impact of an object colliding with the impact head. the first and second part are mutually moveable; and the second cutting edge is arranged for consecutively splitting the second part of the energy absorption body upon impact of an object colliding with the impact head.
A method for configuring an imaging system characterized by: obtaining a random sample of area coverage representations from an area coverage representation space, an area coverage representation comprising a Neugebauer Primary area coverage vector defining a distribution of output combinations for the imaging system, the area coverage representation space having a dimensionality defined by a number of output elements of the imaging system and a number of addressable states of each output element; grouping the obtained area coverage representations into a number of groups based on estimated colorimetry for the imaging system; determining a selected area coverage representation for each group that modifies one or more estimated imaging attributes; and generating a color mapping from an input color space to the area coverage representation space for use by the imaging system based on a color gamut for the random sample and the selected area coverage representations. obtaining a random sample of area coverage representations from an area coverage representation space, an area coverage representation comprising a Neugebauer Primary area coverage vector defining a distribution of output combinations for the imaging system, the area coverage representation space having a dimensionality defined by a number of output elements of the imaging system and a number of addressable states of each output element; grouping the obtained area coverage representations into a number of groups based on estimated colorimetry for the imaging system; determining a selected area coverage representation for each group that modifies one or more estimated imaging attributes; and generating a color mapping from an input color space to the area coverage representation space for use by the imaging system based on a color gamut for the random sample and the selected area coverage representations.
A method of inspecting a fragmentation pattern of a tempered glass panel by deflectometry, following a fragmentation test, the method comprising: - positioning the tempered glass panel in contact with a support means (6, 7); - projecting thanks to a display device a structured light pattern on the surface of at least one portion of the tempered glass panel, - capturing an image reflected by the surface of the first portion of the tempered glass panel using an image capture device, and - processing the images to determine the fragmentation pattern thanks to an image processing device. - positioning the tempered glass panel in contact with a support means (6, 7); - projecting thanks to a display device a structured light pattern on the surface of at least one portion of the tempered glass panel, - capturing an image reflected by the surface of the first portion of the tempered glass panel using an image capture device, and - processing the images to determine the fragmentation pattern thanks to an image processing device.
Use of an isolated homing endonuclease (HIGLE) consisting of the amino acid sequence set forth in SEQ ID NO: 1 which (a) comprises a GIY-YIG domain, (b) has a bifunctional nature based on RNA and DNA, and (c) exhibits construct-specific activity with respect to 3' and 5' overhangs, in the detection of microRNA (miRNA).
Intraoral imaging and illumination apparatus, comprising a rear portion and a front portion removably connected to the rear portion, wherein the front portion is formed as a light guide, the rear portion comprises an imaging device and an illumination device, wherein the illumination device is adapted to couple light into the front portion and towards a leading end of the front portion opposite the rear portion so as to illuminate a first object, wherein the imaging device is adapted to image the first object, characterized in that the intraoral imaging and illumination apparatus further comprises a beam splitter disposed within the rear portion, wherein the beam splitter is adapted to split light emitted by the illumination device and incident thereon into a first fraction and a second fraction, wherein the first fraction of the light is reflected towards the front portion and the second fraction of the light is transmitted towards a second object different from the first object.