mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: simulating a three-dimensional model of a physical environment including an Access Point, an End Point running an application, and a passive object that is a passive source of interference that blocks or attenuates intended communications between networked devices, reflects signals generated by actively communicating devices, or redirects interference from active interference sources; emulating network traffic for the application transmitted between the Access Point and the End Point; simulating, in the model, pathways for signals to carry the traffic in a plurality of regions for the physical environment; emulating signal degradation along the pathways in the plurality of regions based on a first location for the Access Point, a second location for the End Point, and a third location for the passive object in the physical environment, wherein emulating the signal degradation along the simulated pathways further comprises: probabilistically dropping at least a portion of the traffic based on obstacles in the pathway that the traffic is carried on; and determining and monitoring a level of service that the application provides to the End Point based on a remaining portion of the traffic; and in response to the signal degradation satisfying a pathloss threshold, outputting a command to the application to affect operations of the End Point. emulating network traffic for the application transmitted between the Access Point and the End Point; simulating, in the model, pathways for signals to carry the traffic in a plurality of regions for the physical environment; emulating signal degradation along the pathways in the plurality of regions based on a first location for the Access Point, a second location for the End Point, and a third location for the passive object in the physical environment, wherein emulating the signal degradation along the simulated pathways further comprises: probabilistically dropping at least a portion of the traffic based on obstacles in the pathway that the traffic is carried on; and determining and monitoring a level of service that the application provides to the End Point based on a remaining portion of the traffic; and in response to the signal degradation satisfying a pathloss threshold, outputting a command to the application to affect operations of the End Point. probabilistically dropping at least a portion of the traffic based on obstacles in the pathway that the traffic is carried on; and determining and monitoring a level of service that the application provides to the End Point based on a remaining portion of the traffic; and in response to the signal degradation satisfying a pathloss threshold, outputting a command to the application to affect operations of the End Point.
A biosensor, which enables measuring the concentration of a desired molecule inside a liquid medium, comprising - at least one metallic plate which functions as a ground plate, and which is preferably manufactured from aluminum, - at least one dielectric substrate which is located on top of the metallic plate, - at least one split-ring resonator which is realized on top of the dielectric substrate, and characterized by - at least two symmetrical antennas which are realized on the same plane with the electrically passive split-ring resonator on top of the substrate and which are exciting the electrically passive split-ring resonator by emitting electromagnetic waves, - the metallic plate which enables the electromagnetic wave emitted from the antennas to be transmitted to the electrically passive split-ring resonator by reflecting the said waves, - at least two ports where a network analyzer is connected to the antennas. - at least one metallic plate which functions as a ground plate, and which is preferably manufactured from aluminum, - at least one dielectric substrate which is located on top of the metallic plate, - at least one split-ring resonator which is realized on top of the dielectric substrate, and characterized by - at least two symmetrical antennas which are realized on the same plane with the electrically passive split-ring resonator on top of the substrate and which are exciting the electrically passive split-ring resonator by emitting electromagnetic waves, - the metallic plate which enables the electromagnetic wave emitted from the antennas to be transmitted to the electrically passive split-ring resonator by reflecting the said waves, - at least two ports where a network analyzer is connected to the antennas.
An apparatus for corona treatment, the apparatus including a corona treatment unit with an inlet side and an outlet side, wherein the unit includes one or more sets of transverse electrodes (10, 11), at least one electrode in each set being connected to a high voltage source and at least one second electrode connected electrically to earth, wherein the apparatus is a through-flow apparatus adapted for corona treatment of material in sheets including at least one conveying table with a transverse direction and a longitudinal direction, where the at least one conveying table includes mechanical conveying means, e.g. a series of rotatable transverse rollers, a conveyor belt or other form of conveying means, wherein these mechanical conveying means are arranged at at least an inlet side and/or an outlet side in relation to the corona treatment unit, characterized in that the second electrode includes at least one rotatable traverse roller electrically connected to earth and arranged with a spacing, e.g. a spacing between 0.5 and 15 mm, from the outer periphery to the nearest surface of a first electrode, where the apparatus is adapted for forming a corona discharge between the first electrode and the transverse roller, where the periphery on the at least one transverse roller is arranged substantially at the same level as the surface of the mechanical conveying means, and the apparatus includes at least one suction box arranged around one or more of the transverse electrodes/rollers that are electrically connected to earth, where the suction box includes connection means for connecting a suction device, and that the inlet side and the outlet side are arranged at each side of the central part of the corona treatment unit with a screen over the conveying table and with the suction box under the conveying table.
A method for examining an eye in the region of a front eye section of an eye, using an ophthalmological analysis system, comprising a first analysis system for obtaining first sectional images of the eye, wherein the first analysis system is formed from a projection device and from a monitoring device, which are arranged relative to each other according to the Scheimpflug rule, and comprising a second analysis system for obtaining second sectional images of the eye, wherein the second analysis system is formed from an optical coherence interferometer, wherein the ophthalmological analysis system comprises a processing device, wherein, from at least one coinciding recording plane of the eye, a first image data set is obtained using the first analysis system and a second image data set is obtained using the second analysis system, wherein the processing device processes the first and the second image data set, wherein, by means of the processing device, the first image data set is supplemented, at least partially, with data of the second image data set, wherein the second analysis system comprises a beam guidance device, wherein the beam guidance device has a movable tilting mirror which is arranged in a measurement axis of the analysis system, and by means of which a measurement beam of the optical coherence interferometer is projected onto the cornea, wherein the measurement beam is diverted within the recording plane such that the eye is scanned by the measurement beam along the recording plane, characterised in that the beam guidance device has a concave mirror, by means of which the measurement beam is deflected onto a cornea, wherein the concave mirror is constructed such that an optical path length of the measurement beam up to the cornea remains unchanged when scanning different points of the cornea.
An ion-exchanged alkali aluminosilicate glass article, comprising: greater than 61 mol% SiO 2; 13.5 mol% or more Al 2 O 3; 1 mol% to 5 mol% MgO; CaO; Na 2 O, wherein Al 2 O 3 mol% + RO mol% ≥ 18 mol%, wherein RO mol% = MgO mol% + CaO mol%, wherein the glass article is substantially free of ZnO, SrO, BaO, B 2 O 3, P 2 O 5, Li 2 O, and K 2 O; a Young's modulus value measured in GPa before being ion-exchanged; and a compressive stress layer extending from a surface of the glass article to a depth of compression, the compressive stress layer comprising a peak compressive stress value measured in MPa, wherein a ratio of the peak compressive stress value to the Young's modulus value is 14 or more. greater than 61 mol% SiO 2; 13.5 mol% or more Al 2 O 3; 1 mol% to 5 mol% MgO; CaO; Na 2 O, wherein Al 2 O 3 mol% + RO mol% ≥ 18 mol%, wherein RO mol% = MgO mol% + CaO mol%, wherein the glass article is substantially free of ZnO, SrO, BaO, B 2 O 3, P 2 O 5, Li 2 O, and K 2 O; a Young's modulus value measured in GPa before being ion-exchanged; and a compressive stress layer extending from a surface of the glass article to a depth of compression, the compressive stress layer comprising a peak compressive stress value measured in MPa, wherein a ratio of the peak compressive stress value to the Young's modulus value is 14 or more.
A method for operating a turboprop engine utilizing a single lever control system including a single lever control device operably coupled to an engine Control Unit (ECU), the method comprising: at the ECU, monitoring for receipt of a Power Lever Angle control signal from the single lever control device; when a PLA control signal is received at the ECU, establishing a target torque output for the turboprop engine as a function of at least the PLA control signal; determining an engine rotational speed setpoint utilizing the target torque output; and adjusting an operational parameter of the turboprop engine in accordance with the engine rotational speed setpoint; characterized in that method further comprises: determining a blade angle setpoint as a function of at least the PLA control signal; and determining the engine rotational speed setpoint as a function of the target torque output and the blade angle setpoint. at the ECU, monitoring for receipt of a Power Lever Angle control signal from the single lever control device; when a PLA control signal is received at the ECU, establishing a target torque output for the turboprop engine as a function of at least the PLA control signal; determining an engine rotational speed setpoint utilizing the target torque output; and adjusting an operational parameter of the turboprop engine in accordance with the engine rotational speed setpoint; characterized in that method further comprises: determining a blade angle setpoint as a function of at least the PLA control signal; and determining the engine rotational speed setpoint as a function of the target torque output and the blade angle setpoint. determining a blade angle setpoint as a function of at least the PLA control signal; and determining the engine rotational speed setpoint as a function of the target torque output and the blade angle setpoint.
A spinal implant with an external body and with an axially shiftable internal body held in the external body, with a first lever receptacle being provided on the external body and a second lever receptacle being provided on the internal body, characterized in that both lever receptacles (26, 30) are formed as an elongated hole, and with both lever receptacles (26, 30) being arranged in alignment with each other, that on a longitudinal side of the first and second lever receptacle (26, 30) a number of wall teeth (28, 32) extending into the lever receptacle (26, 30) are formed, that the wall teeth (28, 32) in their respective lever receptacle (26, 30) are arranged on opposite sides, and that guiding means are provided on the internal and external body permitting an axial shifting of the internal body relative to the external body but preventing twisting of the internal body relative to the external body.
A method for compaction of a track ballast bed by means of a tamping unit having sensors comprising two oppositely positioned tamping tools which are coupled in each case via a pivot arm 10 to a squeezing drive 11 and a vibration drive 12 which, actuated with vibrations, are lowered into the track ballast bed during a tamping operation and moved towards one another with a squeezing motion, characterized in that, for at least one tamping tool of the tamping unit, a progression of a horizontal contact force to the ballast acting upon the tamping tool over a path (23, 27) covered by the tamping tool is recorded during a vibration cycle by means of sensors (20, 22, 24) arranged at at least one of the pivot arms and/or the associated tamping tool and that from this at least one characteristic value is derived by means of which an evaluation of the tamping operation and/or of a quality of the track ballast bed is carried out.
A communications device comprising: means for transmitting uplink data to a source communications node; means for receiving, from the source communications node, a message indicating that handover should be performed, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for buffering uplink data; and means for transmitting a message to confirm handover is complete, along with a buffer status report indicating an amount of buffered uplink data, to a target communications node; and means for transmitting uplink data to the target communications node using resources allocated by the target communications node; wherein the uplink data transmitted to the target communications node comprises uplink data buffered after receipt of the message indicating that handover should be performed. means for transmitting uplink data to a source communications node; means for receiving, from the source communications node, a message indicating that handover should be performed, the message including a Cell-Radio Network Temporary Identifier, C-RNTI; means for buffering uplink data; and means for transmitting a message to confirm handover is complete, along with a buffer status report indicating an amount of buffered uplink data, to a target communications node; and means for transmitting uplink data to the target communications node using resources allocated by the target communications node; wherein the uplink data transmitted to the target communications node comprises uplink data buffered after receipt of the message indicating that handover should be performed.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a control message including information indicating a configuration for a radio resource control, RRC, inactive state; characterized in setting a state variable of a packet data convergence protocol, PDCP, entity associated with a data radio bearer, DRB, to an initial value, based on the information included in the received control message; and discarding all stored PDCP protocol data units, PDUs, of the PDCP entity associated with the DRB, based on the information included in the received control message. receiving, from a base station, a control message including information indicating a configuration for a radio resource control, RRC, inactive state; characterized in setting a state variable of a packet data convergence protocol, PDCP, entity associated with a data radio bearer, DRB, to an initial value, based on the information included in the received control message; and discarding all stored PDCP protocol data units, PDUs, of the PDCP entity associated with the DRB, based on the information included in the received control message.
Electrical connection system for connecting a voltage transformer with a high-voltage conductive bar, the system comprising a shunt conductor intended to connect a first connection point at the voltage transformer with a second connection point at the conductive bar, the voltage transformer comprising an internal connector extending along an internal axis perpendicular to a surface plane of the voltage transformer, characterized in that the connection system comprises: - a first connection screw which is intended to be fixed to the first connection point in the extension of the internal axis and which is linked to the shunt conductor, - a first threaded metal sleeve which links the shunt conductor to the first connection screw along the internal axis and which makes it possible to adjust the position of the shunt conductor relative to the first connection screw, - a second connection screw which is intended to be fixed to the second connection point perpendicular to the conductive bar. - a first connection screw which is intended to be fixed to the first connection point in the extension of the internal axis and which is linked to the shunt conductor, - a first threaded metal sleeve which links the shunt conductor to the first connection screw along the internal axis and which makes it possible to adjust the position of the shunt conductor relative to the first connection screw, - a second connection screw which is intended to be fixed to the second connection point perpendicular to the conductive bar.
Method for injection moulding two or more parts with a different size, shape and/or volume using an injection moulding machine and tool (12, 13) comprising two or more mould cavities, and a feed system comprising at least one gate a plurality of runners (19, 20, 21) located upstream of said at least one gate, whereby said plurality of runners (19, 20, 21) comprises at least one moveable wall and said method comprises the step of changing at least one cross-sectional dimension (T x, B x, H x, S x) of said plurality of runners (19, 20, 21) by moving said movable wall, wherein said method is for injection moulding said two or more parts with a different size, shape and/or volume simultaneously, and comprises the step of changing said at least one cross-sectional dimension (T x, B x, H x, S x) of said plurality of runners (19, 20, 21) by moving said at least one movable wall in order to achieve at least one of the following: a) to apply a holding pressure to material in said plurality of runners (19, 20, 21) and consequently to said two or more mould cavities, b) to compress residue in said plurality of runners (19, 20, 21), characterized in that said at least one cross-sectional dimension (T x, B x, H x, S x) of said plurality of runners (19, 20, 21) is individually variable by means of a plurality of side gate inserts (16, 26) that are adapted to change said at least one cross-sectional dimension (T x) of said plurality of runners. a) to apply a holding pressure to material in said plurality of runners (19, 20, 21) and consequently to said two or more mould cavities, b) to compress residue in said plurality of runners (19, 20, 21),
A graphics processing method, the graphics processing method suitable for being applied to a graphics processing apparatus (100, 300) within an electronic device (100, 300), comprising the step: calculating vertex positions of a primitive in a binning phase; characterized in that the graphics processing method comprises the steps of: determining, according to specific information, whether to compute vertex varyings of the primitive in the binning phase or in a subsequent rendering phase so as to provide a determination result; computing the vertex varyings in the binning phase or in the rendering phase according to the determination result; and rendering the primitive according to the vertex positions and the vertex varyings in the rendering phase. calculating vertex positions of a primitive in a binning phase; characterized in that the graphics processing method comprises the steps of: determining, according to specific information, whether to compute vertex varyings of the primitive in the binning phase or in a subsequent rendering phase so as to provide a determination result; computing the vertex varyings in the binning phase or in the rendering phase according to the determination result; and rendering the primitive according to the vertex positions and the vertex varyings in the rendering phase. determining, according to specific information, whether to compute vertex varyings of the primitive in the binning phase or in a subsequent rendering phase so as to provide a determination result; computing the vertex varyings in the binning phase or in the rendering phase according to the determination result; and rendering the primitive according to the vertex positions and the vertex varyings in the rendering phase.
A ligating clip for a self-ligating orthodontic bracket, comprising: - a labial arm having a free end and a further end - a lingual arm having a free end and a further end - a connecting arm connected to the further ends of the labial arm and the lingual arm the labial arm, the connecting arm and the lingual arm each having a distal side and a mesial side, the labial arm and the lingual arm extending generally in a gingival-occlusal direction and the connecting arm extending generally in a lingual-labial direction - a locking element in form of a hook arranged at the free end of the lingual arm, the hook protruding in a lingual-labial direction characterized in that at least one cutout is arranged at the free end of the lingual arm, the at least one cutout being open at either the distal or the mesial side of the lingual arm. - a labial arm having a free end and a further end - a lingual arm having a free end and a further end - a connecting arm connected to the further ends of the labial arm and the lingual arm - a locking element in form of a hook arranged at the free end of the lingual arm, the hook protruding in a lingual-labial direction
A process to treat saline water which includes Ca and sulphate, the process including adding a salt-forming base to the saline water thereby to form a salt, to increase the pH of the water and to form calcium carbonate, adding a salt-forming base comprising adding Na 2 CO 3 or NaHCO 3 or a mixture of these two bases; precipitating and removing calcium carbonate to avoid the possibility of gypsum fouling of membranes of a membrane separation stage employed to desalinate the saline water; treating the saline water, at a temperature T 1 which is above the saturation temperature of the saline water, in a first membrane separation stage to provide clean water and a first brine, the salinity of the first brine being higher than the salinity of the saline water; cooling the first brine to a temperature T 2 to precipitate some of the salt from the first brine and separating the precipitated salt from the first brine producing a second brine, the temperature T 2 being below the temperature T 1 but above the freezing temperature of the first brine; and treating the second brine at a temperature T 3 above the saturation temperature of the second brine in a second membrane separation stage to provide clean water and a third brine, wherein the salt-forming base, said temperature T 1 and said temperature T 2 are selected so that the salt which is formed in the saline water has a solubility in water at said temperature T 1 which is at least 1.5 times the solubility of said salt in water at said temperature T 2.