mhurhangee/ep-ind-claims huggingface dataset:
A method for connecting a wireless device (500, 608, 910, 1000) to a hidden audio network (610, 920, 930) that is available but does not provide an indicator of its existence, without the device or user knowing or typing in the network name, the method comprising: detecting, via a multimedia playback device (400, 602, 604, 606), a network connection request from the wireless device, wherein the audio network is unspecified in the request; in response to detecting the network connection request, triggering, by the multimedia playback device, a connection phase with the hidden audio network by revealing a network access point with a preset identifier to the wireless device; in response to the wireless device attempting to connect to the network access point with the preset identifier using a predefined password valid during the connection phase, allowing, by the multimedia playback device, the wireless device to connect to the hidden audio network via the network access point with limited connectivity during the connection phase; disconnecting the wireless device from the audio network; and accepting, by the playback network, a connection of the wireless device to the audio network in an operational phase in response to receiving from the wireless device information provided to the wireless device during the connection phase, wherein, in the operational phase, additional connectivity and access is provided with respect to the connection phase. detecting, via a multimedia playback device (400, 602, 604, 606), a network connection request from the wireless device, wherein the audio network is unspecified in the request; in response to detecting the network connection request, triggering, by the multimedia playback device, a connection phase with the hidden audio network by revealing a network access point with a preset identifier to the wireless device; in response to the wireless device attempting to connect to the network access point with the preset identifier using a predefined password valid during the connection phase, allowing, by the multimedia playback device, the wireless device to connect to the hidden audio network via the network access point with limited connectivity during the connection phase; disconnecting the wireless device from the audio network; and accepting, by the playback network, a connection of the wireless device to the audio network in an operational phase in response to receiving from the wireless device information provided to the wireless device during the connection phase, wherein, in the operational phase, additional connectivity and access is provided with respect to the connection phase.
A fuel system comprising: a fuel supply system; a plurality of fuel nozzles connected in fluid communication with the fuel supply system to supply fuel from a fuel source; the fuel supply system including a first fuel manifold connected in fluid communication with a first subset of the fuel nozzles to supply fuel from the fuel source; a cooling system including a second fuel manifold connected in fluid communication with a second subset of fuel nozzles to supply fuel from the fuel source; wherein each one of the plurality of fuel nozzles includes a fuel circuit with a fuel circuit inlet, and a cooling circuit with a cooling circuit inlet and a cooling circuit outlet; wherein each one of the plurality of fuel nozzles of the second subset of fuel nozzles is arranged in alternating pattern between a pair of fuel nozzles of the first subset of fuel nozzles; wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the first subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the second subset of fuel nozzles for combustion; and wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the second subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the first subset of fuel nozzles for combustion. a fuel supply system; a plurality of fuel nozzles connected in fluid communication with the fuel supply system to supply fuel from a fuel source; the fuel supply system including a first fuel manifold connected in fluid communication with a first subset of the fuel nozzles to supply fuel from the fuel source; a cooling system including a second fuel manifold connected in fluid communication with a second subset of fuel nozzles to supply fuel from the fuel source; wherein each one of the plurality of fuel nozzles includes a fuel circuit with a fuel circuit inlet, and a cooling circuit with a cooling circuit inlet and a cooling circuit outlet; wherein each one of the plurality of fuel nozzles of the second subset of fuel nozzles is arranged in alternating pattern between a pair of fuel nozzles of the first subset of fuel nozzles; wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the first subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the second subset of fuel nozzles for combustion; and wherein fuel from the cooling circuit outlet of one of the fuel nozzles of the second subset of the fuel nozzles flows through a respective conduit to the fuel circuit inlet of an adjacent one of the plurality of fuel nozzles of the first subset of fuel nozzles for combustion.
Method for bending a glass pane in a furnace, wherein the furnace has an inlet and an outlet, comprising the steps: • Providing a glass pane on a mounting, wherein the mounting is preheated, • Introducing the mounted glass pane into the inlet of the furnace for bending, • Discharging the bent, mounted glass pane out of the outlet of the furnace, • Withdrawing the bent, mounted glass pane from the mounting, • Installing thermal insulation on the mounting, • Returning the mounting and the thermal insulation by means of a transport device, • Removing the thermal insulation prior to renewed mounting, • wherein the aforementioned steps are carried out again in a cyclical manner. • Providing a glass pane on a mounting, wherein the mounting is preheated, • Introducing the mounted glass pane into the inlet of the furnace for bending, • Discharging the bent, mounted glass pane out of the outlet of the furnace, • Withdrawing the bent, mounted glass pane from the mounting, • Installing thermal insulation on the mounting, • Returning the mounting and the thermal insulation by means of a transport device, • Removing the thermal insulation prior to renewed mounting, • wherein the aforementioned steps are carried out again in a cyclical manner.
A blender comprising: a blender body including an external cylinder, a grinding blade, and a blade driving portion rotating the grinding blade; an internal cylinder unit including an internal cylinder, disposed in the external cylinder, in which the grinding blade is disposed, and an internal cylinder driving portion rotating the internal cylinder; and a controller electrically connected to the blade driving portion and the internal cylinder driving portion to control the blade driving portion and the internal cylinder driving portion, wherein the internal cylinder has an internal side surface on which a projection is formed such that blending objects, flowing rotationally while being ground by the grinding blade, are caught, characterized in that the controller is adapted to control the internal cylinder driving portion to blend the blending objects while repeating an operating pattern, in which the internal cylinder rotates reversely in a direction opposing a rotation direction of the grinding blade and is then stopped, or an operating pattern, in which the internal cylinder rotates reversely and then changes rotational speed, to break a state of balance of the blending objects in the internal cylinder. a blender body including an external cylinder, a grinding blade, and a blade driving portion rotating the grinding blade; an internal cylinder unit including an internal cylinder, disposed in the external cylinder, in which the grinding blade is disposed, and an internal cylinder driving portion rotating the internal cylinder; and a controller electrically connected to the blade driving portion and the internal cylinder driving portion to control the blade driving portion and the internal cylinder driving portion, wherein the internal cylinder has an internal side surface on which a projection is formed such that blending objects, flowing rotationally while being ground by the grinding blade, are caught, characterized in that the controller is adapted to control the internal cylinder driving portion to blend the blending objects while repeating an operating pattern, in which the internal cylinder rotates reversely in a direction opposing a rotation direction of the grinding blade and is then stopped, or an operating pattern, in which the internal cylinder rotates reversely and then changes rotational speed, to break a state of balance of the blending objects in the internal cylinder.
A communication system, comprising: a first lens configured to be anisotropic with respect to dielectric permittivity; a first radiating element mutually positionable with respect to the lens such that the first radiating element can alternatively direct a first beam through the lens along a first orientation having a first dielectric permittivity, and a second beam through the lens along a second orientation having a different, second dielectric permittivity; wherein the first orientation is different than the second orientation; wherein the first beam and the second beam are produced by the first radiating element; and wherein the first lens is configured such that the first and second beams (304A; 304B) have at least one of (i) different vertical and horizontal beamwidths and (ii) different polarizations. a first lens configured to be anisotropic with respect to dielectric permittivity; a first radiating element mutually positionable with respect to the lens such that the first radiating element can alternatively direct a first beam through the lens along a first orientation having a first dielectric permittivity, and a second beam through the lens along a second orientation having a different, second dielectric permittivity; wherein the first orientation is different than the second orientation; wherein the first beam and the second beam are produced by the first radiating element; and wherein the first lens is configured such that the first and second beams (304A; 304B) have at least one of (i) different vertical and horizontal beamwidths and (ii) different polarizations.
A method of communication by a sidelink receiver device, the method comprising: receiving a ready-to-send, RTS, message in an RTS channel at a received RTS channel power; receiving a dynamic clear-to-send, CTS, transmit power scaling parameter that is different from a pre-assigned constant parameter for CTS power control stored at the sidelink receiver device, wherein the dynamic CTS transmit power scaling parameter is a multiplier used to increase or decrease a CTS channel power on a transmission time interval, TTI, -by-TTI basis, and wherein the dynamic CTS transmit power scaling parameter is re-determined and sent to the sidelink receiver device on the TTI-by-TTI basis in response to changes in reliability requirements, traffic priority, and/or buffer status for data packets being sent to the sidelink receiver device; generating a CTS message responsive to the RTS message; calculating the CTS channel power as a function of at least the dynamic CTS transmit power scaling parameter and the received RTS channel power; and sending the CTS message in a CTS channel at the calculated CTS channel power. receiving a ready-to-send, RTS, message in an RTS channel at a received RTS channel power; receiving a dynamic clear-to-send, CTS, transmit power scaling parameter that is different from a pre-assigned constant parameter for CTS power control stored at the sidelink receiver device, wherein the dynamic CTS transmit power scaling parameter is a multiplier used to increase or decrease a CTS channel power on a transmission time interval, TTI, -by-TTI basis, and wherein the dynamic CTS transmit power scaling parameter is re-determined and sent to the sidelink receiver device on the TTI-by-TTI basis in response to changes in reliability requirements, traffic priority, and/or buffer status for data packets being sent to the sidelink receiver device; generating a CTS message responsive to the RTS message; calculating the CTS channel power as a function of at least the dynamic CTS transmit power scaling parameter and the received RTS channel power; and sending the CTS message in a CTS channel at the calculated CTS channel power.
A polymeric material comprising: a polyisobutylene-polyurethane block copolymer including: soft segments including at least one polyisobutylene diol residue; and hard segments including at least one diisocyanate residue; and a tertiary amine catalyst, wherein the tertiary amine catalyst includes 2,6-dimethylpyridine. a polyisobutylene-polyurethane block copolymer including: soft segments including at least one polyisobutylene diol residue; and hard segments including at least one diisocyanate residue; and soft segments including at least one polyisobutylene diol residue; and hard segments including at least one diisocyanate residue; and a tertiary amine catalyst, wherein the tertiary amine catalyst includes 2,6-dimethylpyridine.
A coffee roasting apparatus comprising: a compartment for holding coffee beans; a roasting element for roasting the coffee beans in said compartment; a controller for controlling the roasting element; the coffee roasting apparatus being characterised by a sensor for monitoring a total amount of VOCs (volatile organic compounds) released by said coffee beans during roasting and providing the controller with an indication of said monitored amount; wherein the controller is adapted to receive an indication of the total weight of the coffee beans in the compartment and control the roasting element as a function of the indication of the monitored total amount of VOCs and an indication of the total weight of the coffee beans in the compartment, said function defining the total VOC release characteristics of said coffee beans during roasting. a compartment for holding coffee beans; a roasting element for roasting the coffee beans in said compartment; a controller for controlling the roasting element; the coffee roasting apparatus being characterised by a sensor for monitoring a total amount of VOCs (volatile organic compounds) released by said coffee beans during roasting and providing the controller with an indication of said monitored amount; wherein the controller is adapted to receive an indication of the total weight of the coffee beans in the compartment and control the roasting element as a function of the indication of the monitored total amount of VOCs and an indication of the total weight of the coffee beans in the compartment, said function defining the total VOC release characteristics of said coffee beans during roasting.
Endoscope with an endoscope shaft, which has a cylindrical shaft tube, and with an endoscope head, which is arranged at a proximal end of the endoscope shaft and, in a distal end region, has a cylindrical interior with a peripheral groove, wherein the shaft tube is inserted into the cylindrical interior and folded into the peripheral groove, wherein a bottom of the groove forms a closed, continuously concave curve, characterized in that the groove is not rotationally symmetrical.
An end mill having • a shank section (2, 2') to be retained in a rotary driven apparatus and • a cutting section (4, 4') connected to the shank section, in which the cutting section comprises - a plurality of axial portions that each have a predetermined length, and - a core which supports at least two spaced apart teeth which have a cutting edge extending in an axial direction with respect to the axis of rotation of the end mill to a cutting end of the end mill located opposite to a cutting section end closest to the connection to the shank section, in which each cutting edge has a flute associated therewith and this flute is located before the cutting edge in an intended direction of rotation of the end mill and each flute has for each cross-section of the end mill perpendicular to the axis of rotation thereof a bottom point (b 6 -b 9) on said core at a shortest distance (x) to the axis of rotation, wherein each of the plurality of axial portions of the cutting section (4, 4') has at least two of said flutes, the shortest distances (x) of which varying differently, one increasing while the other is decreasing, with the distance to the cutting end of the end mill in the axial direction, and wherein the centre axis of the core corresponds to the axis of rotation of the end mill over the entire length of the cutting section (4, 4') and said shortest distance (x) of at least one of the flutes varies by comprising consecutive gradually decreasing and gradually increasing parts, characterized in that the cross-section area of the core is substantially constant or constant in a majority of or in all said axial portions of the cutting section (4, 4'), in that said shortest distance (x) of at least one of the flutes varies periodically over the longitudinal extension of the flute, such as by describing a sinusoidal or a zigzag curve, and in that said shortest distance (x) of at least one of the flutes has a maximum (ma) exceeding a minimum (mi) thereof by 30-50%. • a shank section (2, 2') to be retained in a rotary driven apparatus and • a cutting section (4, 4') connected to the shank section, in which the cutting section comprises - a plurality of axial portions that each have a predetermined length, and - a core which supports at least two spaced apart teeth which have a cutting edge extending in an axial direction with respect to the axis of rotation of the end mill to a cutting end of the end mill located opposite to a cutting section end closest to the connection to the shank section, - a plurality of axial portions that each have a predetermined length, and - a core which supports at least two spaced apart teeth which have a cutting edge extending in an axial direction with respect to the axis of rotation of the end mill to a cutting end of the end mill located opposite to a cutting section end closest to the connection to the shank section,
A method for applying machine learning to an application, comprising the steps: a) Generating a set of candidate parameters by a learner; b) Executing a program in at least one simulated application (51, 52) and in at least one real application executed on a machine based on the set of candidate parameters and providing interim results (R1, R2) of tested sets of candidate parameters (PC1, PC2) based on a measured performance information of the execution of the program; c) Collecting a predetermined number of interim results (R1, R2) and providing an end result based on a combination of the candidate parameters and the measured performances information by a trainer; d) Generating a new set of candidate parameters by the learner based on the end result, for being executed by the unchanged program; and e) modifying the simulated application (51, 52) based on a reality data of the machine, wherein the reality data is acquired while executing the program in the real application, wherein the reality data is acquired using measurements from the real world and further estimations, wherein the measurements comprise physics parameters. a) Generating a set of candidate parameters by a learner; b) Executing a program in at least one simulated application (51, 52) and in at least one real application executed on a machine based on the set of candidate parameters and providing interim results (R1, R2) of tested sets of candidate parameters (PC1, PC2) based on a measured performance information of the execution of the program; c) Collecting a predetermined number of interim results (R1, R2) and providing an end result based on a combination of the candidate parameters and the measured performances information by a trainer; d) Generating a new set of candidate parameters by the learner based on the end result, for being executed by the unchanged program; and e) modifying the simulated application (51, 52) based on a reality data of the machine, wherein the reality data is acquired while executing the program in the real application, wherein the reality data is acquired using measurements from the real world and further estimations, wherein the measurements comprise physics parameters.
A soil tillage implement which is mechanically moved in a travelling direction over a ground surface of an agricultural field to be tilled and is provided with tools for loosening or cutting the ground surface wherein the tools are arranged transversely to the travelling direction of the soil tillage implement next to one another and in one or multiple rows one behind the other on a frame by way of holding stems, wherein the holding stems are each arranged so as to be vertically pivotable on the frame via at least one transverse axis, wherein between holding stem and frame an overload device is arranged, which consists of at least one energy store and a depth stop, wherein the depth stop defines the working position of the tool and the energy store, when the tool strikes an obstacle in the ground, makes possible a pivot movement of the holding stem out of a working position into an upper overload protection position and, having passed the obstacle, makes possible a return of the holding stem into the working position, wherein the energy store is preloaded in the working position with a basic energy or basic force, characterised in that the depth stop is likewise assigned an energy store, which, when the holding stem strikes the depth stop, generates or allows a movement of the holding stem out of the working position into a lower overload protection position and following the strike, generates or allows a return of the holding stem into working position.