mhurhangee/patent-ind-claim-en huggingface dataset:
A computer program which causes a processor to execute a method to coordinate transmissions of device on a wireless network , the method comprising: transmitting, by a first communications device , a beacon in a communication channel, the beacon having a time slot schedule for multiple time slots to be included in a beacon interval, wherein the first communications device assigns the multiple time slots to other communications devices to access the communication channel; if the communication channel is not busy at a time slot boundary, wherein the time slot boundary corresponds to a time for a second communications device to awake from a doze state to receive a synch with the communication channel: generating a physical layer convergence procedure protocol data unit, PPDU , with no data field to transmit if the communication channel is not busy at the time slot boundary; transmitting, by the first communications device , the PPDU with no data field at the time slot boundary of a first time slot of the multiple time slots; receiving, by the first communications device after an interframe space, data from the second communications device ; and if the communication channel is busy at the time slot boundary, not transmitting, by the first communications device , the PPDU with no data field at the time slot boundary of the first time slot. transmitting, by a first communications device , a beacon in a communication channel, the beacon having a time slot schedule for multiple time slots to be included in a beacon interval, wherein the first communications device assigns the multiple time slots to other communications devices to access the communication channel; if the communication channel is not busy at a time slot boundary, wherein the time slot boundary corresponds to a time for a second communications device to awake from a doze state to receive a synch with the communication channel: generating a physical layer convergence procedure protocol data unit, PPDU , with no data field to transmit if the communication channel is not busy at the time slot boundary; transmitting, by the first communications device , the PPDU with no data field at the time slot boundary of a first time slot of the multiple time slots; receiving, by the first communications device after an interframe space, data from the second communications device ; and generating a physical layer convergence procedure protocol data unit, PPDU , with no data field to transmit if the communication channel is not busy at the time slot boundary; transmitting, by the first communications device , the PPDU with no data field at the time slot boundary of a first time slot of the multiple time slots; receiving, by the first communications device after an interframe space, data from the second communications device ; and if the communication channel is busy at the time slot boundary, not transmitting, by the first communications device , the PPDU with no data field at the time slot boundary of the first time slot.
A method for cutting and separating an item from a workpiece made of a brittle material using a first beam of pulsed laser-radiation and a second beam of laser-radiation , the method comprising: focusing the first beam onto the workpiece ; making a cutting line by translating the focused first beam along the outline of the item , the outline of item including an inside curve ; making a plurality of release features spaced from the cutting line by translating the focused first beam along the paths of the release features , the release features located within the workpiece and outside the item , at least one release feature proximate to the inside curve in the cutting line , the focused first beam weakening the workpiece along the cutting line and along the release features ; directing the second beam onto the cutting line ; translating the directed second beam along the cutting line , the directed second beam further weakening the workpiece along the cutting line ; directing the second beam to a location on the at least one release feature ; and heating the workpiece by locating the second beam at the location over a dwell time, the dwell time sufficient to cause the workpiece to deform and crack; wherein the at least one release feature is arranged to cause a crack to propagate between the at least one release feature and the inside curve during the heating step. focusing the first beam onto the workpiece ; making a cutting line by translating the focused first beam along the outline of the item , the outline of item including an inside curve ; making a plurality of release features spaced from the cutting line by translating the focused first beam along the paths of the release features , the release features located within the workpiece and outside the item , at least one release feature proximate to the inside curve in the cutting line , the focused first beam weakening the workpiece along the cutting line and along the release features ; directing the second beam onto the cutting line ; translating the directed second beam along the cutting line , the directed second beam further weakening the workpiece along the cutting line ; directing the second beam to a location on the at least one release feature ; and heating the workpiece by locating the second beam at the location over a dwell time, the dwell time sufficient to cause the workpiece to deform and crack; wherein the at least one release feature is arranged to cause a crack to propagate between the at least one release feature and the inside curve during the heating step.
A method of controlling a task lighting component and a face lighting component (140, 240, 340A...D) of at least one lighting fixture , comprising: monitoring a light level proximal a task area; providing task lighting from at least one lighting fixture over said task area to said task area when said light level proximal said task area is below a threshold value; characterized in comprising monitoring each of a plurality of user segments for human presence, said user segments being adjacent to said task area and utilized for user interaction with said task area; and providing face lighting from said at least one lighting fixture over said task area only to said user segment having said human presence; wherein said face lighting and task lighting are independently adjustable such that the task lighting is distinct from the face lighting in at least one of intensity, spectral composition, and dynamic behavior. monitoring a light level proximal a task area; providing task lighting from at least one lighting fixture over said task area to said task area when said light level proximal said task area is below a threshold value; characterized in comprising monitoring each of a plurality of user segments for human presence, said user segments being adjacent to said task area and utilized for user interaction with said task area; and providing face lighting from said at least one lighting fixture over said task area only to said user segment having said human presence; wherein said face lighting and task lighting are independently adjustable such that the task lighting is distinct from the face lighting in at least one of intensity, spectral composition, and dynamic behavior.
Motorcycle provided with a frame , two front steering wheels , a right and a left steering pipe rotatably connected to the frame and respectively rigidly connected to a right and a left supporting assembly one for each front steering wheel , and a steering group consisting of two pairs of transversal arms - upper front , lower front , upper rear and lower rear - arranged inverted at opposite sides of a central steering pipe connected to the frame and laterally connected through two lateral posts , characterised in that on each of the supporting assemblies are constrained fixed portions or rods of two telescopic elements , each pair of telescopic elements is laterally cantilever-mounted as regards the relative steering wheel , sliding portions or legs of each pair of the telescopic elements being parallel constrained one to another so as to make both telescopic elements of each pair lie on a plane parallel to the plane of the relative steering wheel , said telescopic elements being internally provided with respective elastic elements and oscillation damping elements in order to realise the motorcycle suspension , said constraint between the sliding portions of the telescopic elements hindering the relative rotation of said sliding portions around their own axis to define univocally the steering angle of each wheel as regards the frame depending on the rotation imparted to the respective steering pipe , wherein said pair of telescopic elements are placed in between each respective steering wheel and the central steering pipe .
A medical-use plasma generating device comprising: a plasma ejecting device configured to eject plasma; and an inert gas ejecting device configured to eject an inert gas such that an outer circumference of the plasma ejected by the plasma ejecting device is covered by the inert gas, wherein the medical-use plasma generating device is provided with a cylindrical tubular outer housing , and a cylindrical tubular inner housing with an outer dimension smaller than an inner dimension of the outer housing , the inner housing being inserted inside the outer housing , and wherein the plasma ejecting device is configured to eject plasma from the inner housing , and the inert gas ejecting device is configured to eject inert gas from between an inner circumferential surface of the outer housing and an outer circumferential surface of the inner housing . a plasma ejecting device configured to eject plasma; and an inert gas ejecting device configured to eject an inert gas such that an outer circumference of the plasma ejected by the plasma ejecting device is covered by the inert gas, wherein the medical-use plasma generating device is provided with a cylindrical tubular outer housing , and a cylindrical tubular inner housing with an outer dimension smaller than an inner dimension of the outer housing , the inner housing being inserted inside the outer housing , and a cylindrical tubular outer housing , and a cylindrical tubular inner housing with an outer dimension smaller than an inner dimension of the outer housing , the inner housing being inserted inside the outer housing , and wherein the plasma ejecting device is configured to eject plasma from the inner housing , and the inert gas ejecting device is configured to eject inert gas from between an inner circumferential surface of the outer housing and an outer circumferential surface of the inner housing .
Method for time distribution for a communication network of a vehicle, the network comprising: - a grandmaster with a grandmaster clock , - a fist slave connected directly to the grandmaster and comprising a first slave clock , and - a second slave connected indirectly via the first slave to the grandmaster and comprising a second slave clock , the method comprising: - sending, from the grandmaster to the first slave , a first time stamp taken from the grandmaster clock , - generating, at the first slave , a first time tuple including the received first time stamp of the grandmaster clock and a second time stamp taken from the first slave clock at the time of receiving the first time stamp , the method characterized by : - sending, from the first slave to the second slave : - a third time stamp taken from the first slave clock , - a fourth time stamp calculated based on the third time stamp and the first time tuple using a predefined calculation method, and - the first time tuple , - calculating, at the second slave , a fifth time stamp based on the third time stamp and the first time tuple using the predefined calculation method, and - comparing, at the second slave , the fifth time stamp to the fourth time stamp . - a grandmaster with a grandmaster clock , - a fist slave connected directly to the grandmaster and comprising a first slave clock , and - a second slave connected indirectly via the first slave to the grandmaster and comprising a second slave clock , the method comprising: - sending, from the grandmaster to the first slave , a first time stamp taken from the grandmaster clock , - generating, at the first slave , a first time tuple including the received first time stamp of the grandmaster clock and a second time stamp taken from the first slave clock at the time of receiving the first time stamp , the method characterized by : - sending, from the first slave to the second slave : - a third time stamp taken from the first slave clock , - a fourth time stamp calculated based on the third time stamp and the first time tuple using a predefined calculation method, and - the first time tuple , - a third time stamp taken from the first slave clock , - a fourth time stamp calculated based on the third time stamp and the first time tuple using a predefined calculation method, and - the first time tuple , - calculating, at the second slave , a fifth time stamp based on the third time stamp and the first time tuple using the predefined calculation method, and - comparing, at the second slave , the fifth time stamp to the fourth time stamp .
A liquid container having an aperture and comprising within the container: one single mounting ; a plurality of liquid permeable bodies ; and a plurality of flexible tethers configured to retain said permeable bodies, each tether having a respective captive end attached to said mounting. one single mounting ; a plurality of liquid permeable bodies ; and a plurality of flexible tethers configured to retain said permeable bodies, each tether having a respective captive end attached to said mounting.
Mixer wagon , either self-propelled or intended to be hitched to a tractor vehicle, comprising a carrier chassis , a mixing tank with a discharge opening , and a discharge device which is associated with the discharge opening and is able and intended to convey the product leaving the discharge opening and to deposit it on a lateral side of the said mixer wagon , for example on a feeding area, the said discharge device comprising a belt conveyor arranged transversally with respect to the direction of advance (A) of the mixer wagon and sized to extend at least under the discharge opening and the said conveyor being composed of a first and at least a second constituent parts (6 and 7), the or each second part being connected to the first part by a pivot connection allowing its inclination with respect to the said first part , by raising the extreme free end of the second part concerned above the conveying plan (PC) of the said first part , mixer wagon characterized in that the means used to raise the free end of the second part of the conveyor form at least one articulated mechanical joint comprising a connecting rod connecting the said second part to an element of the chassis , the connecting rod being provided with a cam mounted so as to move in a guided manner on or in a cam track of the element of the chassis and in that all of the said means are arranged above the pivot connection .
A method for encoding, comprising: encoding a first texture picture into a bitstream, said first texture picture comprising a first projection (DP1) of first volumetric texture data of a first source volume (SV1) of a scene model (SCE) and a second projection (DP2) of second volumetric texture data of said first source volume (SV1) of said scene model (SCE), said first projection (DP1) being from said first source volume (SV1) to a first projection surface (S1), and said second projection (DP2) being from said first source volume (SV1) to a second projection surface (S2), characterized in that the method further comprises decimating said first volumetric texture data to obtain said second volumetric texture data by removing at least a part of first volumetric texture data primitives that has been projected in said first projection; encoding a first geometry picture into said bitstream, said first geometry picture comprising mapping of said first projection surface (S1) to said first source volume (SV1) and mapping of said second projection surface (S2) to said first source volume (SV1); and encoding a projection geometry information of said first (DP1) and second projections (DP2) into said bitstream, said projection geometry information comprising information of a position of said first (S1) and second projection surfaces (S2) in said scene model (SCE). encoding a first texture picture into a bitstream, said first texture picture comprising a first projection (DP1) of first volumetric texture data of a first source volume (SV1) of a scene model (SCE) and a second projection (DP2) of second volumetric texture data of said first source volume (SV1) of said scene model (SCE), said first projection (DP1) being from said first source volume (SV1) to a first projection surface (S1), and said second projection (DP2) being from said first source volume (SV1) to a second projection surface (S2), characterized in that the method further comprises decimating said first volumetric texture data to obtain said second volumetric texture data by removing at least a part of first volumetric texture data primitives that has been projected in said first projection; encoding a first geometry picture into said bitstream, said first geometry picture comprising mapping of said first projection surface (S1) to said first source volume (SV1) and mapping of said second projection surface (S2) to said first source volume (SV1); and encoding a projection geometry information of said first (DP1) and second projections (DP2) into said bitstream, said projection geometry information comprising information of a position of said first (S1) and second projection surfaces (S2) in said scene model (SCE).
A fume decontamination system connectable to any combustion system, characterized in that it includes seven devices (A to G) interconnected sequentially as follows: - (A) The connection of the fume extraction device to the combustion system, - (B) A conducting device comprising ducts , - (C) A cooling device comprising a cooler , the cooled fume is conducted to a suction device (D) through ducts - (D) The suction device, which includes an extractor and an electronic device for regulating the flow thereof, the suction device drives the pressurized fumes to an induction device (E), - (E) the induction device (E) comprises a drive box , conveyance elements and injection regulators , the induction device concentrates and directs the fumes to a plenum unit, (F), - The plenum unit (F) comprises an injection plenum and injection channels , and - (G) A biological plant filtering device comprising a biofilter substrate, WHEREIN: The injection plenum channels uniformly distribute the fume in the plant biofilter substrate at different levels of the biofilter substrate to homogenize the entry of fumes to the biofilter substrate and ensure that the fume travels evenly through the biofilter substrate. - (A) The connection of the fume extraction device to the combustion system, - (B) A conducting device comprising ducts , - (C) A cooling device comprising a cooler , the cooled fume is conducted to a suction device (D) through ducts - (D) The suction device, which includes an extractor and an electronic device for regulating the flow thereof, the suction device drives the pressurized fumes to an induction device (E), - (E) the induction device (E) comprises a drive box , conveyance elements and injection regulators , the induction device concentrates and directs the fumes to a plenum unit, (F), - The plenum unit (F) comprises an injection plenum and injection channels , and - (G) A biological plant filtering device comprising a biofilter substrate, WHEREIN: The injection plenum channels uniformly distribute the fume in the plant biofilter substrate at different levels of the biofilter substrate to homogenize the entry of fumes to the biofilter substrate and ensure that the fume travels evenly through the biofilter substrate.
A wireless communication system comprising: a processing unit configured to identify a number of secondary systems in an activated state located in a first geographical area; estimate a geographical distribution density of secondary systems in the first geographical area and cluster the secondary systems into at least one cluster according to the estimated geographical distribution density such that the geographic distribution of respective secondary systems in each cluster is uniform; identify a primary resource available to be assigned to the secondary systems, the primary resource being a resource to which a primary system has a frequency spectrum usage right; determine whether the number of secondary systems in the activated state located in the at least one cluster exceeds an upper limit; and limit a number of secondary systems to which the primary resource is assigned when it is determined that the number of secondary systems in the activated state located in the at least one cluster exceeds the upper limit. identify a number of secondary systems in an activated state located in a first geographical area; estimate a geographical distribution density of secondary systems in the first geographical area and cluster the secondary systems into at least one cluster according to the estimated geographical distribution density such that the geographic distribution of respective secondary systems in each cluster is uniform; identify a primary resource available to be assigned to the secondary systems, the primary resource being a resource to which a primary system has a frequency spectrum usage right; determine whether the number of secondary systems in the activated state located in the at least one cluster exceeds an upper limit; and limit a number of secondary systems to which the primary resource is assigned when it is determined that the number of secondary systems in the activated state located in the at least one cluster exceeds the upper limit.
A method, comprising: receiving, by controlling circuitry of a sound rendering computer configured to render sound fields for a listener, sound data resulting from a sound field produced at a first position in space by directional signal sources, each directional signal source producing a directional signal contributing to the sound field; identifying, by the controlling circuitry, a plurality of directions of the directional signal sources based on the sound data, the plurality of directions being directions by which at least a specified fraction of energy of the sound field is produced at the first position; obtaining, by the controlling circuitry, a plurality of distances of the directional signal sources from the first position in space; and generating, by the controlling circuitry, the sound field at a second position based on the plurality of directions and the plurality of distances, the second position being different from the first position. receiving, by controlling circuitry of a sound rendering computer configured to render sound fields for a listener, sound data resulting from a sound field produced at a first position in space by directional signal sources, each directional signal source producing a directional signal contributing to the sound field; identifying, by the controlling circuitry, a plurality of directions of the directional signal sources based on the sound data, the plurality of directions being directions by which at least a specified fraction of energy of the sound field is produced at the first position; obtaining, by the controlling circuitry, a plurality of distances of the directional signal sources from the first position in space; and generating, by the controlling circuitry, the sound field at a second position based on the plurality of directions and the plurality of distances, the second position being different from the first position.
Thixotropic agent for increasing the yield point of a curable composition, wherein the thixotropic agent comprises (i) at least one urea compound from the reaction of at least one isocyanate with at least one amine and (ii) at least one polyether having blocked hydroxyl groups which is free of urethane groups.