mhurhangee/ep-ind-claims huggingface dataset:
A baling machine comprising: a baler frame; a wrapping device having a wrap material bay, the wrapping device attached to the baler frame and operable to provide a supply of wrap material from a wrap material roll when the wrap material roll is located in the wrap material bay in a dispensing position; a cover pivotally attached to the baler frame, the cover being movable from the baler frame between closed and open positions to selectively provide access to the wrap material bay; and a wrap transfer device attached to the baler frame and operable to support and transfer the wrap material roll relative to the baler frame; wherein the wrap transfer device includes: an arm having a first end and a second end, the arm pivotally attached to the baler frame at the first end for rotation of the arm about a vertical axis; characterized in that the wrap transfer device further includes a lifting device positioned on the arm, wherein the lifting device is configured to be attached to the wrap material roll and operable to lower and lift the wrap material roll via a cable; wherein the wrap transfer device is under the cover when the wrap transfer device is positioned within the wrap material bay. a baler frame; a wrapping device having a wrap material bay, the wrapping device attached to the baler frame and operable to provide a supply of wrap material from a wrap material roll when the wrap material roll is located in the wrap material bay in a dispensing position; a cover pivotally attached to the baler frame, the cover being movable from the baler frame between closed and open positions to selectively provide access to the wrap material bay; and a wrap transfer device attached to the baler frame and operable to support and transfer the wrap material roll relative to the baler frame; wherein the wrap transfer device includes: an arm having a first end and a second end, the arm pivotally attached to the baler frame at the first end for rotation of the arm about a vertical axis; characterized in that the wrap transfer device further includes a lifting device positioned on the arm, wherein the lifting device is configured to be attached to the wrap material roll and operable to lower and lift the wrap material roll via a cable; wherein the wrap transfer device is under the cover when the wrap transfer device is positioned within the wrap material bay. an arm having a first end and a second end, the arm pivotally attached to the baler frame at the first end for rotation of the arm about a vertical axis; characterized in that the wrap transfer device further includes a lifting device positioned on the arm, wherein the lifting device is configured to be attached to the wrap material roll and operable to lower and lift the wrap material roll via a cable; wherein the wrap transfer device is under the cover when the wrap transfer device is positioned within the wrap material bay.
A positive active material for a rechargeable lithium battery, comprising a lithium nickel-based composite oxide including a secondary particle in which a plurality of plate-shaped primary particles are agglomerated; and a coating layer including a fiber-shaped lithium manganese composite oxide, wherein the fiber-shaped lithium manganese composite oxide is attached to the surface of the lithium nickel-based composite oxide.
Analog-digital converter having at least one input to which at least one analog input signal (S(t)) can be supplied and having at least one output, which is configured to output a digital data stream representing the analog input signal, wherein the analog-digital converter comprises an optical input stage, which is configured to convert the analog input signal (S(t)) into a phase-modulated optical signal and supply it to a hybrid coupler with a plurality of output waveguides, each connected to at least one photodiode (13a, 13b), the electrical terminal contacts of the photodiodes (13a, 13b) are each connected to the input of an associated analog-digital converter (21a, 21b), by means of which an analog electrical input signal can be converted into a digital electrical output signal, and the output of the analog-digital converters (21a, 21b) is connected to the inputs of an output stage, which is configured to form the digital data stream at the output from the digital output signals of the analog-digital converters (21a, 21b), characterized in that the output stage is configured to select the output signal of the analog-digital converter (21a, 21b) that is within a predeterminable range of the amplitude and, as a criterion of lower priority, has a predeterminable slope and/or is greater than a predeterminable adjacent output signal.
A wireless communications method using hybrid beamforming, comprising: receiving a signal-to-interference-plus-noise ratio, SINR, measured for a plurality of beamforming signals of which direction angles are different from each other, from a plurality of terminals to which wireless resources are allocated; allocating the beamforming signals to each of the plurality of terminals based on the received SINR; and receiving channel state information, measured for each of the allocated beamforming signals, from the plurality of terminals; characterized by nulling firstly a sidelobe signal of the allocated beamforming signals, through analog beamforming, that causes interference with another terminal based on the channel state information; after the operation of nulling firstly, receiving a signal strength of the allocated beamforming signals and checking the residual interference component of the sidelobe signal based on the signal strength; and nulling secondly residual interference component of the sidelobe signal through digital beamforming. receiving a signal-to-interference-plus-noise ratio, SINR, measured for a plurality of beamforming signals of which direction angles are different from each other, from a plurality of terminals to which wireless resources are allocated; allocating the beamforming signals to each of the plurality of terminals based on the received SINR; and receiving channel state information, measured for each of the allocated beamforming signals, from the plurality of terminals; characterized by nulling firstly a sidelobe signal of the allocated beamforming signals, through analog beamforming, that causes interference with another terminal based on the channel state information; after the operation of nulling firstly, receiving a signal strength of the allocated beamforming signals and checking the residual interference component of the sidelobe signal based on the signal strength; and nulling secondly residual interference component of the sidelobe signal through digital beamforming.
A super absorbent polymer comprising: a base polymer powder comprising a first cross-linked polymer of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups; and a surface cross-linked layer formed on the base polymer powder and comprising a second cross-linked polymer in which the first cross-linked polymer is further cross-linked via a surface crosslinking agent, a sulfonate derivative and a sulfinate derivative, wherein the weight ratio of the sulfinate derivative to the sulfonate derivative is 1:2 to 1:10, wherein a vortex time measured according to the measurement method of Vortex is 25 to 50 seconds, wherein an extractable content measured according to EDANA method No. WSP 270.2 is 15% by weight or less, wherein in a CIE 1976 colorimetric system, an L value is 90 or more and a b value is 8 or less, and wherein in a CIE 1976 colorimetric system measured after the super absorbent polymer is left under a condition of a temperature of 90°C and a relative humidity of 90% for 48 hours, an L value is 80 or more and a b value is 9 or less. a base polymer powder comprising a first cross-linked polymer of a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups; and a surface cross-linked layer formed on the base polymer powder and comprising a second cross-linked polymer in which the first cross-linked polymer is further cross-linked via a surface crosslinking agent, a sulfonate derivative and a sulfinate derivative, wherein the weight ratio of the sulfinate derivative to the sulfonate derivative is 1:2 to 1:10, wherein a vortex time measured according to the measurement method of Vortex is 25 to 50 seconds, wherein an extractable content measured according to EDANA method No. WSP 270.2 is 15% by weight or less, wherein in a CIE 1976 colorimetric system, an L value is 90 or more and a b value is 8 or less, and wherein in a CIE 1976 colorimetric system measured after the super absorbent polymer is left under a condition of a temperature of 90°C and a relative humidity of 90% for 48 hours, an L value is 80 or more and a b value is 9 or less.
A vehicle pulling device comprising: movable chassis disposed in a travel passage for a wheeled vehicle and being movable in a first direction; and support beam disposed on the movable chassis characterized in that the support beam is rotatable between a first position and a second position, wherein in the first position, the support beam is located substantially in a second direction substantially perpendicular to the first direction, such that wheels of the vehicle interact. with the support beam of the vehicle pulling device so that the vehicle is pulled to pass through the travel passage; and in the second position, the support beam is located substantially parallel to the first direction such that the wheels of the vehicle do not interact with the support beam of the vehicle pulling device so that the vehicle travels by itself to pass through the travel passage. movable chassis disposed in a travel passage for a wheeled vehicle and being movable in a first direction; and support beam disposed on the movable chassis characterized in that the support beam is rotatable between a first position and a second position, wherein in the first position, the support beam is located substantially in a second direction substantially perpendicular to the first direction, such that wheels of the vehicle interact. with the support beam of the vehicle pulling device so that the vehicle is pulled to pass through the travel passage; and in the second position, the support beam is located substantially parallel to the first direction such that the wheels of the vehicle do not interact with the support beam of the vehicle pulling device so that the vehicle travels by itself to pass through the travel passage.
Device for parking a plurality of vehicles or the like on top of one another, - wherein at least one platform which is able to be lifted and lowered by a lifting installation that comprises a working cylinder is provided, and - one synchronization traction element (4a, 4b) is in each case provided so as to be lateral on the platform, - said synchronization traction element (4a, 4b) by way of a first part in a first region of the platform - extending across a central, second, part running on the platform - to a third part and to a second region of the platform that is opposite the first region and - said synchronization traction element (4a, 4b) by way of one end thereof being fixed in the first region and by way of the other end thereof being fixed in the second region, - wherein each synchronization traction element (4a, 4b) is guided on the platform by at least one roller (50a, 50b, 51a, 51b) and - the rollers (50a, 50b, 51a, 51b) of both synchronization traction elements (4a, 4b) are rotationally connected by way of a synchronization shaft, wherein - a piston rod of the working cylinder supports a deflection roller or similar for a traction element, and the ends of the traction element are fixed to the building that receives the device, or to the device, characterized in that - the synchronization traction element (4a, 4b) is part of the traction element, as a result of which a combined traction/synchronization traction element is formed. - wherein at least one platform which is able to be lifted and lowered by a lifting installation that comprises a working cylinder is provided, and - one synchronization traction element (4a, 4b) is in each case provided so as to be lateral on the platform, - said synchronization traction element (4a, 4b) by way of a first part in a first region of the platform - extending across a central, second, part running on the platform - to a third part and to a second region of the platform that is opposite the first region and - said synchronization traction element (4a, 4b) by way of one end thereof being fixed in the first region and by way of the other end thereof being fixed in the second region, - wherein each synchronization traction element (4a, 4b) is guided on the platform by at least one roller (50a, 50b, 51a, 51b) and - the rollers (50a, 50b, 51a, 51b) of both synchronization traction elements (4a, 4b) are rotationally connected by way of a synchronization shaft, wherein - a piston rod of the working cylinder supports a deflection roller or similar for a traction element, and the ends of the traction element are fixed to the building that receives the device, or to the device, characterized in that - the synchronization traction element (4a, 4b) is part of the traction element, as a result of which a combined traction/synchronization traction element is formed.
An Optical Virtual Private Network, hereafter referred to as OVPN, terminating device connected to a user's device (20-1, 21-2) which joins an OVPN comprising: a plurality of converting sections (33, 34), which are disposed so as to correspond to plural different first signal formats, for converting a first signal format to and from a second signal format under conditions in which the first signal format which is used by a user's device which joins the OVPN and a second signal format which is used in the OVPN are different from each other; a registering section for registering a first signal format type used in the user's device together with an IP address of the user's device and a VPN identifier, the first signal format type used in the user's device being notified from the user's device; a notifying section for notifying contents of the registration to other OVPN terminating device which controls the same VPN identifier as the user's device; a retrieving section for the first signal format type which corresponds to the IP address and the VPN identifier in the user's device according to a calling connection request from the user's device by referring to the information which is registered by the registering section, and a selecting section for selecting the first signal format which is used by the user's device according to a result in the retrieving section when data is transported from the user's device. a plurality of converting sections (33, 34), which are disposed so as to correspond to plural different first signal formats, for converting a first signal format to and from a second signal format under conditions in which the first signal format which is used by a user's device which joins the OVPN and a second signal format which is used in the OVPN are different from each other; a registering section for registering a first signal format type used in the user's device together with an IP address of the user's device and a VPN identifier, the first signal format type used in the user's device being notified from the user's device; a notifying section for notifying contents of the registration to other OVPN terminating device which controls the same VPN identifier as the user's device; a retrieving section for the first signal format type which corresponds to the IP address and the VPN identifier in the user's device according to a calling connection request from the user's device by referring to the information which is registered by the registering section, and a selecting section for selecting the first signal format which is used by the user's device according to a result in the retrieving section when data is transported from the user's device.
A method of estimating the location of a plurality (104, 106, 108) of electromagnetic signal sources, comprising: scanning at a first plurality (320, 322, 324) of locations, and generating signal source position data by processing signals received at the first plurality of locations from signal sources in dependence on the position of each of the first plurality of locations, the signal source position data representing estimates of the position of one or more said signal sources; scanning at a second plurality (520, 522, 524) of locations using a signal detection system to generate signal detection data, the signal detection data relating to signals received at the second plurality of locations from the signal sources; processing the signal source position data in dependence on the signal detection data to correct estimation errors in the signal source position data by using the signal detection data to estimate the position of the second plurality of locations and by generating further signal source position data representing new estimates of the position of the signal sources in dependence on signal detection data and the said estimated positions of the second plurality of locations; and outputting the processed signal source position data. scanning at a first plurality (320, 322, 324) of locations, and generating signal source position data by processing signals received at the first plurality of locations from signal sources in dependence on the position of each of the first plurality of locations, the signal source position data representing estimates of the position of one or more said signal sources; scanning at a second plurality (520, 522, 524) of locations using a signal detection system to generate signal detection data, the signal detection data relating to signals received at the second plurality of locations from the signal sources; processing the signal source position data in dependence on the signal detection data to correct estimation errors in the signal source position data by using the signal detection data to estimate the position of the second plurality of locations and by generating further signal source position data representing new estimates of the position of the signal sources in dependence on signal detection data and the said estimated positions of the second plurality of locations; and outputting the processed signal source position data.
Preparation method of fluorescent materials used in field emission, including the following steps: step 1: preparing Zn 1-x Al x O, and x is in a range of 0<x≤0.05; step 2: weighing an yttrium oxide or yttrium oxalate, and an europium oxide or europium oxalate or terbium oxide or terbium oxalate, grinding to form a mixture; step 3: mixing the Zn 1-x Al x O prepared in step 1 with the mixture obtained in step 2, stirring, drying to form a mixture consisting of Zn 1-x Al x O, yttrium oxide or yttrium oxalate, and europium oxide or europium oxalate or terbium oxide or terbium oxalate; step 4: calcining the mixture obtained in step 3 to form a mixture consisting of Zn 1-x Al x O, and europium yttrium oxide or terbium yttrium oxide, said mixture obtained finally is said fluorescent material used in field emission; wherein in the step 1, the Zn 1-x Al x O is prepared by using a sol-gel method comprises: weighing raw materials of zinc salt and aluminum salt, and dissolving in a solvent chosen from the group consisting of ethylene glycol monomethyl ether and ethanol, then adding a stabilizing agent chosen from the group consisting of monoethanolamine, diethanol amine and triethanolamine to make Zn 1-x Al x O at a concentration of 0.05 to 0.70mol/L, and stirring in a 40 to 70°C water-bath for 4 to 6h to obtain clarified precursor solution, placing into a 60°C oven for an ageing lasting 56 to 90h to obtain said Zn 1-x Al x O. step 1: preparing Zn 1-x Al x O, and x is in a range of 0<x≤0.05; step 2: weighing an yttrium oxide or yttrium oxalate, and an europium oxide or europium oxalate or terbium oxide or terbium oxalate, grinding to form a mixture; step 3: mixing the Zn 1-x Al x O prepared in step 1 with the mixture obtained in step 2, stirring, drying to form a mixture consisting of Zn 1-x Al x O, yttrium oxide or yttrium oxalate, and europium oxide or europium oxalate or terbium oxide or terbium oxalate; step 4: calcining the mixture obtained in step 3 to form a mixture consisting of Zn 1-x Al x O, and europium yttrium oxide or terbium yttrium oxide, said mixture obtained finally is said fluorescent material used in field emission; wherein in the step 1, the Zn 1-x Al x O is prepared by using a sol-gel method comprises: weighing raw materials of zinc salt and aluminum salt, and dissolving in a solvent chosen from the group consisting of ethylene glycol monomethyl ether and ethanol, then adding a stabilizing agent chosen from the group consisting of monoethanolamine, diethanol amine and triethanolamine to make Zn 1-x Al x O at a concentration of 0.05 to 0.70mol/L, and stirring in a 40 to 70°C water-bath for 4 to 6h to obtain clarified precursor solution, placing into a 60°C oven for an ageing lasting 56 to 90h to obtain said Zn 1-x Al x O.
A luminaire comprising: a housing; a light-emitting optic attached to the housing; a cavity between the housing and the light-emitting optic; and a circular acoustic panel attached to a perimeter of the housing and being fully circumferential around the light-emitting optic, characterized in that the circular acoustic panel comprises a plurality of concentric rings (128, 130, 134, 136) arranged in the same plane and having mutually different diameters, wherein the concentric rings are separate parts that are mutually, detachably mountable via connection elements wherein an outer peripheral edge of a first ring is attached to an inner peripheral edge of a second ring arranged around the first ring. a housing; a light-emitting optic attached to the housing; a cavity between the housing and the light-emitting optic; and a circular acoustic panel attached to a perimeter of the housing and being fully circumferential around the light-emitting optic, characterized in that the circular acoustic panel comprises a plurality of concentric rings (128, 130, 134, 136) arranged in the same plane and having mutually different diameters, wherein the concentric rings are separate parts that are mutually, detachably mountable via connection elements wherein an outer peripheral edge of a first ring is attached to an inner peripheral edge of a second ring arranged around the first ring.