mhurhangee/ep-ind-claims huggingface dataset:
A method of extending a first message in a wireless communication network operating according to an IEEE 802.11 protocol, comprising: determining a modulation and coding scheme capability of a destination device of the first message; determining a number of bits in a final symbol of the first message; determining a length of a signaling extension, SE, based on the modulation and coding scheme capability and the number of bits, wherein the SE follows the final symbol in the first message; and transmitting the first message with a transmission length, TXTIME, of the first message in a legacy preamble/HE preamble of the first message, with the SE of the determined length, and with an SE disambiguation indication to the destination device, wherein the SE disambiguation indication indicates whether the length of the SE plus a length of a rounding error, Δ, is greater than a data symbol duration, T sym, wherein the rounding error, Δ, is a difference between the end of the SE and the end of the first message according to the quantized transmission length, TXTIME. determining a modulation and coding scheme capability of a destination device of the first message; determining a number of bits in a final symbol of the first message; determining a length of a signaling extension, SE, based on the modulation and coding scheme capability and the number of bits, wherein the SE follows the final symbol in the first message; and transmitting the first message with a transmission length, TXTIME, of the first message in a legacy preamble/HE preamble of the first message, with the SE of the determined length, and with an SE disambiguation indication to the destination device, wherein the SE disambiguation indication indicates whether the length of the SE plus a length of a rounding error, Δ, is greater than a data symbol duration, T sym, wherein the rounding error, Δ, is a difference between the end of the SE and the end of the first message according to the quantized transmission length, TXTIME.
An amine curable epoxy resin composition comprising: epoxy resin component comprising: 8-31 wt% of diglycidyl ether of bisphenol A, 3-14 wt% of diglycidyl ether of bisphenol F, 1-5 wt% of monoglycidylether, 0.6-5 wt% of alkylsulphonic phenyl ester, 0.16-1 wt% of wetting and dispersing agent, 0.16-1 wt% of defoamer, and 5-40 wt% of barium sulfate; hardener component comprising: 3-18 wt% of first amine based composition, and 2-12 wt% of second amine based composition, wherein the first amine based composition comprises N,N'-bis(3-aminomethylbenzyl)-2 -hydroxytrimethylenediamine represented by the following formula and m-xylylenediamine, and the second amine based composition comprises the reaction products of m-xylylenediamine and styrene represented by the following formula and m-xylylenediamine, wherein A is phenylene, and each of R 1, R 2 and R 3 independently represents hydrogen or phenylethyl; wherein the sum of each component content is 100wt%, and each weight percentage is based on the total weight of the amine curable epoxy resin composition. epoxy resin component comprising: 8-31 wt% of diglycidyl ether of bisphenol A, 3-14 wt% of diglycidyl ether of bisphenol F, 1-5 wt% of monoglycidylether, 0.6-5 wt% of alkylsulphonic phenyl ester, 0.16-1 wt% of wetting and dispersing agent, 0.16-1 wt% of defoamer, and 5-40 wt% of barium sulfate; 8-31 wt% of diglycidyl ether of bisphenol A, 3-14 wt% of diglycidyl ether of bisphenol F, 1-5 wt% of monoglycidylether, 0.6-5 wt% of alkylsulphonic phenyl ester, 0.16-1 wt% of wetting and dispersing agent, 0.16-1 wt% of defoamer, and 5-40 wt% of barium sulfate; hardener component comprising: 3-18 wt% of first amine based composition, and 2-12 wt% of second amine based composition, wherein the first amine based composition comprises N,N'-bis(3-aminomethylbenzyl)-2 -hydroxytrimethylenediamine represented by the following formula and m-xylylenediamine, and the second amine based composition comprises the reaction products of m-xylylenediamine and styrene represented by the following formula and m-xylylenediamine, wherein A is phenylene, and each of R 1, R 2 and R 3 independently represents hydrogen or phenylethyl; wherein the sum of each component content is 100wt%, and each weight percentage is based on the total weight of the amine curable epoxy resin composition. 3-18 wt% of first amine based composition, and 2-12 wt% of second amine based composition,
Method for the determination of the real intensity of liquid precipitation on ground starting from a moving vehicle, the vehicle comprising at least a speed sensor providing its speed v a along time, as well as a surface, integral to the same vehicle and inclined of an angle α with respect to the plane perpendicular to the gravity force, with the condition 0 < α < 90°, on said surface being placed one or more sensors of perceived intensity of liquid precipitation measuring an increment of a water layer deposed by the atmospheric precipitation on the same surface, the method being characterized in that it executes the following steps: A. obtaining from said one or more sensors of perceived intensity a plurality of values of perceived precipitation intensity I P in correspondence to a plurality of subsequent time instants; B. obtaining from said at least a speed sensor a plurality of values for speed v a in correspondence to said plurality of subsequent time instants; C. performing, with respect to a plurality of values pairs ( I P, v a) obtained from the measurements of steps A and B, a regression according to the formula: I P = I PV + I PO = g PV I a + g PO I a v a wherein g PV (I, α) is an analytical function, invertible with respect to the real precipitation I, that represents the intensity of precipitation crossing the horizontal projection of said surface, and g PO (I, α, v α) is an analytical function representing the intensity of precipitation that crosses the vertical projection of said surface; D. inverting the function g PV (I, α) calculated in step C by regression, and obtaining the real precipitation value I. A. obtaining from said one or more sensors of perceived intensity a plurality of values of perceived precipitation intensity I P in correspondence to a plurality of subsequent time instants; B. obtaining from said at least a speed sensor a plurality of values for speed v a in correspondence to said plurality of subsequent time instants; C. performing, with respect to a plurality of values pairs ( I P, v a) obtained from the measurements of steps A and B, a regression according to the formula: I P = I PV + I PO = g PV I a + g PO I a v a wherein g PV (I, α) is an analytical function, invertible with respect to the real precipitation I, that represents the intensity of precipitation crossing the horizontal projection of said surface, and g PO (I, α, v α) is an analytical function representing the intensity of precipitation that crosses the vertical projection of said surface; D. inverting the function g PV (I, α) calculated in step C by regression, and obtaining the real precipitation value I.
An aseptic bag quick connection device comprising an aseptic bag mouth and a mouth connection piece, wherein said mouth connection piece is a hollow tube piece and comprises an oblique edge at the bottom of the connection piece; characterized in that the quick connection device further comprises a mouth sealing cover, and in that said mouth sealing cover and said mouth connection piece are mountable at said mouth of said aseptic bag, and in that - said aseptic bag mouth has arc-shaped grooves on the upper surface, the lower surface of the mouth is sealed with laminate compound film, - said mouth sealing cover has arc-shaped heaves on the two sides, and said arc-shaped heaves are fastenable with the arc-shaped grooves on the upper surface of the bag mouth for sealing; - said mouth connection piece comprises a four liquid discharge holes at the lower middle position of the connection piece, the upper and middle part of the connection piece has a rotating arm, the latter having a slot in each end of said rotating arm, the dimension of the slot being consistent with the dimension of the outer edge of the bag mouth adjacent to the arc-shaped groove. - said aseptic bag mouth has arc-shaped grooves on the upper surface, the lower surface of the mouth is sealed with laminate compound film, - said mouth sealing cover has arc-shaped heaves on the two sides, and said arc-shaped heaves are fastenable with the arc-shaped grooves on the upper surface of the bag mouth for sealing; - said mouth connection piece comprises a four liquid discharge holes at the lower middle position of the connection piece, the upper and middle part of the connection piece has a rotating arm, the latter having a slot in each end of said rotating arm, the dimension of the slot being consistent with the dimension of the outer edge of the bag mouth adjacent to the arc-shaped groove.
A method of monitoring combustion properties in an interior of a boiler of the type having walls comprising a plurality of parallel steam tubes separated by a metal membrane, the method comprising: a) providing first and second penetrations in the metal membrane between adjacent tubes on opposite sides of the boiler without relocating the adjacent tubes; b) projecting a beam of light through a pitch optic comprising a pitch collimating lens and a pitch relay lens both residing outside the boiler interior, the pitch relay lens being optically coupled to the first penetration to project the beam into the boiler interior; c) receiving the beam of light with a catch optic residing outside the boiler interior, the catch optic comprising a catch relay lens optically coupled to the second penetration and a catch collimating lens optically coupled to the catch relay lens; d) determining a strength of the collimated received beam of light; and e) aligning at least one of the pitch collimating lens and the catch collimating lens to maximize the strength of the collimated received beam, wherein the pitch relay lens is aligned such that a light beam received by the pitch relay lens goes through the first penetration at the focal point of the pitch relay lens. a) providing first and second penetrations in the metal membrane between adjacent tubes on opposite sides of the boiler without relocating the adjacent tubes; b) projecting a beam of light through a pitch optic comprising a pitch collimating lens and a pitch relay lens both residing outside the boiler interior, the pitch relay lens being optically coupled to the first penetration to project the beam into the boiler interior; c) receiving the beam of light with a catch optic residing outside the boiler interior, the catch optic comprising a catch relay lens optically coupled to the second penetration and a catch collimating lens optically coupled to the catch relay lens; d) determining a strength of the collimated received beam of light; and e) aligning at least one of the pitch collimating lens and the catch collimating lens to maximize the strength of the collimated received beam, wherein the pitch relay lens is aligned such that a light beam received by the pitch relay lens goes through the first penetration at the focal point of the pitch relay lens.
A digging implement including: a shaft; a plug; a tool portion, wherein the shaft includes a hollow receiving portion in at least one end thereof into which a first portion of the plug is engaged; and wherein the tool portion includes an aperture therein which is configured to allow the tool portion to be attached to a second portion of the plug, the implement being characterised in that the aperture is further configured to allow the tool portion to be attached to at least a portion of the outer periphery of the shaft. a shaft; a plug; a tool portion, wherein the shaft includes a hollow receiving portion in at least one end thereof into which a first portion of the plug is engaged; and wherein the tool portion includes an aperture therein which is configured to allow the tool portion to be attached to a second portion of the plug, the implement being characterised in that the aperture is further configured to allow the tool portion to be attached to at least a portion of the outer periphery of the shaft.
A sail having a variable profile, between a non-operative position and an operative position, determining the profile of the sail and therefore the aerodynamic surface in contact with the wind, the sail comprising at least one inflatable and stiffenable sail element, operable by an inflating means and stiffening means, between said non-operative position, and said operative position, where the sail is inflated, wherein the profile of the sail is divided into sections (21, 22) on both sides of a shaft, said sections (21, 22) comprising a supporting structure on which said inflatable sail elements are disposed; said elements being constituted of inflatable bags, operable by said inflation means and stiffening means, wherein the sail features total symmetric duality, the sail being configured toward one side or the other with variable volumes, making it unnecessary for the sail to be rotated 180 degrees in the event that the wind might come from the opposite direction, such that, when the sail is configured toward said one side, the section on said one side is the one furthermost from the trailing edge of the resulting aerodynamic profile, whereas, when the sail is configured toward said other side, the section on said other side is the one furthermost from the trailing edge of the resulting aerodynamic profile.
A peer-to-peer relay network, comprising: a plurality of N peer systems (1105 A-D); wherein: each peer system (1105 x) is connected to a number of other peer systems (1105 y) that is less than or equal to a connection limit; said connection limit is greater than or equal to 2; said connection limit is less than or equal to N-2; each peer system is configured to relay data to peer systems connected to that peer system according to a set of one or more relay rules; and after a joining peer system (1105 E) has sent out join messages to the peer systems of the peer-to-peer network, received join responses back from the peer systems and selected a peer system corresponding to a negative response, the joining peer system connects to a selected peer system (1105 B) in that peer-to-peer network by sending a force connection request to the selected peer system (1105 B), such that the force connection request forces the selected peer system (1105 B) to close an existing connection and open a connection with the joining peer system (1105 E). a plurality of N peer systems (1105 A-D); wherein: each peer system (1105 x) is connected to a number of other peer systems (1105 y) that is less than or equal to a connection limit; said connection limit is greater than or equal to 2; said connection limit is less than or equal to N-2; each peer system is configured to relay data to peer systems connected to that peer system according to a set of one or more relay rules; and after a joining peer system (1105 E) has sent out join messages to the peer systems of the peer-to-peer network, received join responses back from the peer systems and selected a peer system corresponding to a negative response, the joining peer system connects to a selected peer system (1105 B) in that peer-to-peer network by sending a force connection request to the selected peer system (1105 B), such that the force connection request forces the selected peer system (1105 B) to close an existing connection and open a connection with the joining peer system (1105 E). each peer system (1105 x) is connected to a number of other peer systems (1105 y) that is less than or equal to a connection limit; said connection limit is greater than or equal to 2; said connection limit is less than or equal to N-2; each peer system is configured to relay data to peer systems connected to that peer system according to a set of one or more relay rules; and after a joining peer system (1105 E) has sent out join messages to the peer systems of the peer-to-peer network, received join responses back from the peer systems and selected a peer system corresponding to a negative response, the joining peer system connects to a selected peer system (1105 B) in that peer-to-peer network by sending a force connection request to the selected peer system (1105 B), such that the force connection request forces the selected peer system (1105 B) to close an existing connection and open a connection with the joining peer system (1105 E).
A method for modifying a vehicle parameter based on bimanual input, the method comprising: acquiring sensor data from a first sensor input region (210-1 - 210-4) associated with a first finger of one hand of a user and from a second sensor input region (210-5, 210-6) associated with a second finger of the other hand of the user; analyzing the sensor data to determine a first location of the first finger within the first sensor input region (210-1 - 210-4) and a second location of the second finger within the second sensor input region (210-5, 210-6); characterized by selecting a first vehicle parameter based on the first location of the first finger; determining a modified first vehicle parameter based on determining that the second finger moved to the second location within a threshold period of time subsequent to the first finger moving to the first location; and controlling a first auxiliary component within a vehicle based on the modified first vehicle parameter, wherein at least one of a torque input and shearing input applied to a steering wheel is detected by a force sensor coupled to the steering wheel, wherein the modified first vehicle parameter is determined based on the force executed on the steering wheel. acquiring sensor data from a first sensor input region (210-1 - 210-4) associated with a first finger of one hand of a user and from a second sensor input region (210-5, 210-6) associated with a second finger of the other hand of the user; analyzing the sensor data to determine a first location of the first finger within the first sensor input region (210-1 - 210-4) and a second location of the second finger within the second sensor input region (210-5, 210-6); characterized by selecting a first vehicle parameter based on the first location of the first finger; determining a modified first vehicle parameter based on determining that the second finger moved to the second location within a threshold period of time subsequent to the first finger moving to the first location; and controlling a first auxiliary component within a vehicle based on the modified first vehicle parameter, wherein at least one of a torque input and shearing input applied to a steering wheel is detected by a force sensor coupled to the steering wheel, wherein the modified first vehicle parameter is determined based on the force executed on the steering wheel.
Device for treating containers, with at least one drive assembly (6, 7) having at least one electric drive motor (6.1, 7.1) for driving function elements of the device, wherein, in order to adapt the rotational speed or power of the at least one drive assembly (6, 7) to the respective operational state of the device, the at least one drive motor (6.1, 7.1) is a frequency-regulated or controlled electric motor, and at least one frequency converter (8, 9) operating the electric drive motor (6.1, 7.1) is provided, wherein the rotational speed or power of the at least one drive assembly (6, 7) can be controlled by the at least one frequency converter (8, 9) operating this drive motor (6.1, 7.1) so as to adapt to an operational state of a system comprising the device, characterised in that the function elements are assemblies or sub-assemblies of the device, and wherein the rotational speed or power of the at least one drive assembly (6, 7) can be controlled by means of the at least one frequency converter (8, 9) in such a way that, in the event of a fault in the device or in the system, the at least one drive assembly (6, 7) or the at least one drive (6.1, 7.1) can be operated in a standby mode with a reduced rotational speed or power.
Apparatus for data transmission using a transponder that can be fixed to the required components by means of a fixing band, said band comprising a housing-like top part to which portions of the band can be connected, forming a loop for the purpose of enclosing components of any shape, the top part comprising a through slot for this purpose, said slot being furnished with a latching device, which interacts with an assignable latching part of the fixing band when the free end of the band passes through the slot, the transponder being directly integrated in the housing of the top part without any further fixtures or additional parts and without any overhang, characterised in that a recess is designed in the form of a receiving cylinder or in the form of a receiving cone and in that, once the transponder is placed in the recess, said recess is sealed from the outside by means of a plug.
A robot cleaner comprises: a suction unit provided at a lower surface thereof with a suction port to suction air, and a plurality of suction guide grooves to guide air introduced into the suction port, the suction guide grooves are provided at a front side of the suction port and are formed to have a width that decreases in a direction towards a rear side of the robot cleaner; a shutter installed at the front side of the suction port so as to be movable up and down; a shutter driving device configured to move the shutter up and down, and a controller configured to control upward and downward movements of the shutter driving device, wherein the shutter opens or closes rear sides of the plurality of suction guide grooves by moving up and down. a suction unit provided at a lower surface thereof with a suction port to suction air, and a plurality of suction guide grooves to guide air introduced into the suction port, the suction guide grooves are provided at a front side of the suction port and are formed to have a width that decreases in a direction towards a rear side of the robot cleaner; a shutter installed at the front side of the suction port so as to be movable up and down; a shutter driving device configured to move the shutter up and down, and a controller configured to control upward and downward movements of the shutter driving device, wherein the shutter opens or closes rear sides of the plurality of suction guide grooves by moving up and down.