mhurhangee/patent-ind-claim-en huggingface dataset:
Container having - a container body , - a container neck adjoining the container body, - an external thread formed on the container neck , - a closure cap for closing a pouring opening provided within the container neck , the closure cap having - an open edge and an internal thread , which cooperates with the external thread of the container neck and - a base which closes the closure cap on the side facing away from the open edge , and - a first shrink film in the form of a tube, which shrink film is shrunk with a first region onto the closure cap and is shrunk with a second region at least onto a container neck region , which container neck region adjoins the open edge of the closure cap , which is screwed onto the container neck , whereby the first shrink film is held on the container neck and on the closure cap , characterised in that the first region and the second region of the first shrink film are connected with a retaining strip . - a container body , - a container neck adjoining the container body, - an external thread formed on the container neck , - a closure cap for closing a pouring opening provided within the container neck , the closure cap having - an open edge and an internal thread , which cooperates with the external thread of the container neck and - a base which closes the closure cap on the side facing away from the open edge , and - a first shrink film in the form of a tube, which shrink film is shrunk with a first region onto the closure cap and is shrunk with a second region at least onto a container neck region , which container neck region adjoins the open edge of the closure cap , which is screwed onto the container neck , whereby the first shrink film is held on the container neck and on the closure cap , characterised in that the first region and the second region of the first shrink film are connected with a retaining strip .
A method for wireless communications, performed by an apparatus, comprising: identifying a first set of wireless resources for synchronization signal transmissions and a second set of wireless resources for broadcast channel transmissions, the second set of wireless resources comprising a first subset of time resources and a second, different, subset of time resources, wherein the broadcast channel transmissions are transmitted using a larger frequency bandwidth than the synchronization signal transmissions; identifying locations of reference signal resources within the first subset of time resources and the second subset of time resources, wherein the first subset of time resources and the second subset of time resources have different reference signal waveforms constructed by splitting a long base sequence among the first and the second subset of time resources, wherein the long base sequence comprises a Zadoff-Chu, ZC, sequence, m-sequence, or cyclic shifts thereof; receiving reference signal transmissions over the reference signal resources; determining a waveform of the reference signal transmissions based at least in part on the locations of the reference signal resources; and performing a channel estimation based at least in part on the received reference signal transmissions and the determined waveform of the reference signal transmissions. identifying a first set of wireless resources for synchronization signal transmissions and a second set of wireless resources for broadcast channel transmissions, the second set of wireless resources comprising a first subset of time resources and a second, different, subset of time resources, wherein the broadcast channel transmissions are transmitted using a larger frequency bandwidth than the synchronization signal transmissions; identifying locations of reference signal resources within the first subset of time resources and the second subset of time resources, wherein the first subset of time resources and the second subset of time resources have different reference signal waveforms constructed by splitting a long base sequence among the first and the second subset of time resources, wherein the long base sequence comprises a Zadoff-Chu, ZC, sequence, m-sequence, or cyclic shifts thereof; receiving reference signal transmissions over the reference signal resources; determining a waveform of the reference signal transmissions based at least in part on the locations of the reference signal resources; and performing a channel estimation based at least in part on the received reference signal transmissions and the determined waveform of the reference signal transmissions.
A use of a surface coated with at least one laser-induced graphene (LIG) layer in an aqueous medium for combating or controlling biofouling or controlling microorganisms in said aqueous medium.
An air compression device (X1) comprising: a housing which has a front portion with an opening formed, and in which a compressor unit is housed; a fan device unit which generates an air flow that cools the compressor unit ; and a panel member to which the fan device unit is attached, wherein the panel member is attached to the housing so as to be able to open or close the opening of the housing ; and wherein the fan device unit is configured to have an inlet port which sucks air in the housing and send the air sucked through the inlet port toward the compressor unit , and characterized in that the panel member is formed with a recessed space (S5), the recessed space being a part of an inner surface of the panel member recessed from the inside of the housing toward the outside, and at least a part of the fan device unit is arranged in the recessed space (S5) such that the inlet port is located in the recessed space (S5) so that an inner surface of the panel member forming the recessed space (S5) is configured to guide the air, flowing in a passage (F1) at the side surface of the fan device unit in a direction towards the inner surface of the panel member to go around toward the inlet port so as to reduce the noise of the air compression device (X1). a housing which has a front portion with an opening formed, and in which a compressor unit is housed; a fan device unit which generates an air flow that cools the compressor unit ; and a panel member to which the fan device unit is attached, wherein the panel member is attached to the housing so as to be able to open or close the opening of the housing ; and wherein the fan device unit is configured to have an inlet port which sucks air in the housing and send the air sucked through the inlet port toward the compressor unit , and characterized in that the panel member is formed with a recessed space (S5), the recessed space being a part of an inner surface of the panel member recessed from the inside of the housing toward the outside, and at least a part of the fan device unit is arranged in the recessed space (S5) such that the inlet port is located in the recessed space (S5) so that an inner surface of the panel member forming the recessed space (S5) is configured to guide the air, flowing in a passage (F1) at the side surface of the fan device unit in a direction towards the inner surface of the panel member to go around toward the inlet port so as to reduce the noise of the air compression device (X1).
Blade for a rotor of an aircraft having a rotary wing designed to rotate about an axis of rotation (A), the said blade extending on the one hand along a blade axis (B) between a blade start capable of being connected to a hub of the said rotor and a blade tip situated at a free end of the said blade , and on the other hand along a transverse axis (T) perpendicular to the said blade axis (B) between a leading edge and a trailing edge , the said blade comprising a profiled part situated between the said blade start and the said blade tip , the said profiled part consisting of a succession of aerodynamic profiles , each aerodynamic profile being situated in a transverse plane substantially perpendicular to the said blade axis (B) and demarcating a section of the said blade , the said blade tip being located at a distance equal to a rotor radius R of the said axis of rotation (A), a maximum distance between the said leading edge and the said trailing edge in the said transverse plane forming a chord c for the said aerodynamic profile of the said sections of the said blade , a mean chord c being a mean value of the said chord c on the said profiled part , a first forward direction being defined from the said trailing edge to the said leading edge and a second rearward direction being defined from the said leading edge to the said trailing edge , the said blade presenting a combination of the laws of variation of chords and pitch, the said pitch being the angle between the said leading edge and the said blade axis (B), the said chord increasing between the start of the said profiled part and a first section S1 situated at a first distance from the said axis of rotation (A) between 0.6 R and 0.9 R , the said chord increasing beyond the said first section S1 , and the said pitch being directed in the forward direction of the said blade between the said start of the said profiled part and a second section S2 situated at a second distance from the said axis of rotation (A) between 0.5 R and 0.8 R , the said leading edge forming a first forward pitch angle α 1 strictly greater than 0° and less than 10° with the said blade axis (B), the said pitch being directed in the forward direction of the said blade between the said second section S2 and a third section S3 situated at a third distance from the said axis of rotation (A) between 0.6 R and 0.95 R , the said leading edge forming a second front pitch angle α 2 between 1° and 15° with the said blade axis (B), the said pitch being directed to the rear of the said blade between the said third section S3 and the said blade tip , the said leading edge forming a third rear pitch angle α 3 of between -35° and -15° with the said blade axis (B), characterised in that the said first forward pitch angle α 1 is equal to 4°, the said second forward pitch angle α 2 is equal to 8°, and the said third rear pitch angle α 3 is equal to -23°.
A method for manufacturing an electronic circuit comprising: a circuit board on which an electronic component is mounted; a heat conducting sheet stacked on the electronic component ; and a heat sink stacked on the heat conducting sheet , wherein the heat sink comprises a porous ceramic having a volume resistivity of 10 10 Ohm·cm or more and a porosity of 15-50 vol%, the method comprising: mixing at least silicon dioxide, alumina, and silicon carbide, each as a raw material, to obtain granulated particles having a particle diameter of 10 μm or more; and sintering the obtained granulated particles to manufacture the porous ceramic .
Method for analyzing a wireless link of a wireless node of a customer premises equipment device , comprising performing a first test, during which a data transmission is forced through the wireless link, to obtain a first set of parameters, and performing a second test, which is a monitoring mode during which a data transmission of the wireless link is monitored, to obtain a second set of parameters, characterized in that the first set of parameters comprise at least a measured data rate with a Received Signal Strength Indicator, RSSI, value, the second set of parameters comprise at least clear channel assessment statistics and if the measured data rate with the RSSI value is within the boundary of reference data, said reference data comprising two sets of data rates with RSSI values measured at two different times in an interference free environment and for two different conditions of path loss, an observed decrease in the measured data rate is assigned to Physics effects or to a Far End Interference, wherein the observed decrease in the measured data rate is assigned to Far End Interference if the channel assessment statistics of the second parameters indicate the presence of interferences. performing a first test, during which a data transmission is forced through the wireless link, to obtain a first set of parameters, and performing a second test, which is a monitoring mode during which a data transmission of the wireless link is monitored, to obtain a second set of parameters, characterized in that the first set of parameters comprise at least a measured data rate with a Received Signal Strength Indicator, RSSI, value, the second set of parameters comprise at least clear channel assessment statistics and if the measured data rate with the RSSI value is within the boundary of reference data, said reference data comprising two sets of data rates with RSSI values measured at two different times in an interference free environment and for two different conditions of path loss, an observed decrease in the measured data rate is assigned to Physics effects or to a Far End Interference, wherein the observed decrease in the measured data rate is assigned to Far End Interference if the channel assessment statistics of the second parameters indicate the presence of interferences.
A method for creating a new Wireless-Fidelity, Wi-Fi, Peer-to-Peer, P2P, group, wherein a first 1:N P2P group comprises a first P2P device as a group owner and a second P2P device and a third P2P device as group clients, the method comprising: transmitting (S402a), by the second P2P device, a request message requesting creation of a second P2P group, to the third P2P device, wherein the request message includes an intent value of the second P2P device; receiving (S405a), by the second P2P device, a response message to the request message from the third P2P device, wherein the response message includes an intent value of the third P2P device; and creating the second P2P group, comprising the second P2P device and the third P2P device based on the request message and the response message, while maintaining connection with the first 1:N P2P group; wherein the second P2P group does not include the first P2P device; wherein the creating of the second P2P group comprises setting a group owner and a group client of the second P2P group by comparing the intent value of the second P2P device and the intent value of the third P2P device, and creating the second P2P group; and wherein each of the request message and the response message uses a vendor-specific content field of a Generic Advertisement Service, GAS, protocol frame defined by a wireless communication standard. transmitting (S402a), by the second P2P device, a request message requesting creation of a second P2P group, to the third P2P device, wherein the request message includes an intent value of the second P2P device; receiving (S405a), by the second P2P device, a response message to the request message from the third P2P device, wherein the response message includes an intent value of the third P2P device; and creating the second P2P group, comprising the second P2P device and the third P2P device based on the request message and the response message, while maintaining connection with the first 1:N P2P group; wherein the second P2P group does not include the first P2P device; wherein the creating of the second P2P group comprises setting a group owner and a group client of the second P2P group by comparing the intent value of the second P2P device and the intent value of the third P2P device, and creating the second P2P group; and wherein each of the request message and the response message uses a vendor-specific content field of a Generic Advertisement Service, GAS, protocol frame defined by a wireless communication standard.
A pharmaceutically active ingredient for use in a method of treating Parkinson's disease, comprising: ( i ) cannabidiol (CBD); and ( ii ) one or more additional cannabinoids selected from cannabidivarin (CBDV), cannabichromene (CBC), and cannabigerol (CBG); and ( iii ) optionally, at least a first selected terpene, wherein the first selected terpene is selected from limonene, linalool, nerolidol, pinene, and phytol, wherein the active ingredient is substantially free of tetrahydrocannabinol (THC). ( i ) cannabidiol (CBD); and ( ii ) one or more additional cannabinoids selected from cannabidivarin (CBDV), cannabichromene (CBC), and cannabigerol (CBG); and ( iii ) optionally, at least a first selected terpene, wherein the first selected terpene is selected from limonene, linalool, nerolidol, pinene, and phytol,
A carbon nanotube wire, being formed from a single carbon nanotube aggregate constituted of a plurality of carbon nanotubes each having a single- or multi-walled structure, or formed by bundling a plurality of the carbon nanotube aggregates, wherein a proportion of a total number of the carbon nanotubes having a double-walled or triple-walled structure based on a total number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; a proportion of a total number of the carbon nanotubes having an average diameter of the innermost wall of 1.7 nm or smaller based on the number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; and a full-width at half maximum Δθ in azimuth angle in azimuth intensity distribution by small-angle X-ray scattering indicating orientation of the plurality of carbon nanotube aggregates is 60° or smaller. wherein a proportion of a total number of the carbon nanotubes having a double-walled or triple-walled structure based on a total number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; a proportion of a total number of the carbon nanotubes having an average diameter of the innermost wall of 1.7 nm or smaller based on the number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; and a full-width at half maximum Δθ in azimuth angle in azimuth intensity distribution by small-angle X-ray scattering indicating orientation of the plurality of carbon nanotube aggregates is 60° or smaller.
Room control system for a room-in-room as a delimited spatial area within existing rooms and as a free-standing, self-contained and independent spatial unit in large rooms, comprising at least one input unit , at least one display unit and a data processing system interacting with the input unit and the display unit , wherein at least one technical device can be controlled by the data processing system and at least one service function can be realized by the at least one technical device , wherein the data processing system is provided with a data storage device which comprises the setting up of a booking system and thus a space utilization plan, wherein the booking system comprises a time schedule, wherein the booking system corresponds to an access function.
A method for transmitting a signal using an unlicensed carrier, applied in a base station, characterized by comprising: after a right to use the unlicensed carrier is acquired, transmitting the signal in remaining resources or remaining resources and a subframe subsequent to the remaining resources, wherein the signal comprises a service data signal and further comprises one or more of start symbol identity information, a synchronization signal and a reference signal; wherein, the remaining resources comprise: all complete Orthogonal Frequency-Division Multiplexing, OFDM, symbols from a time point when the right to use the unlicensed carrier is acquired by the base station to an end time of a subframe in which the time point is located. after a right to use the unlicensed carrier is acquired, transmitting the signal in remaining resources or remaining resources and a subframe subsequent to the remaining resources, wherein the signal comprises a service data signal and further comprises one or more of start symbol identity information, a synchronization signal and a reference signal; wherein, the remaining resources comprise: all complete Orthogonal Frequency-Division Multiplexing, OFDM, symbols from a time point when the right to use the unlicensed carrier is acquired by the base station to an end time of a subframe in which the time point is located.
A method performed by a video encoder (340; 500), comprising: evaluating whether a value of a variable that indicates a number of total reference pictures is greater than 1; and only when the value is greater than 1, conditionally signaling in a bitstream a reference picture list, RPL, modification structure, wherein the RPL modification structure includes a flag that indicates whether an RPL is modified according to syntax elements explicitly signaled in the bitstream as a list of list entries, wherein each of the list entries specifies an index of a reference picture in a temporary version of the RPL to be placed at a current position of the RPL, wherein if the value of said flag is equal to 1 the RPL is specified explicitly as the list, and if the value of said flag is equal to 0 the RPL is determined implicitly. evaluating whether a value of a variable that indicates a number of total reference pictures is greater than 1; and only when the value is greater than 1, conditionally signaling in a bitstream a reference picture list, RPL, modification structure, wherein the RPL modification structure includes a flag that indicates whether an RPL is modified according to syntax elements explicitly signaled in the bitstream as a list of list entries, wherein each of the list entries specifies an index of a reference picture in a temporary version of the RPL to be placed at a current position of the RPL, wherein if the value of said flag is equal to 1 the RPL is specified explicitly as the list, and if the value of said flag is equal to 0 the RPL is determined implicitly.
A method, comprising the steps of: reacting a picolinamide of Formula (I): with a substituted chloroacylal of Formula (II): to produce a compound of Formula (III): wherein: R 1 is a primary or secondary alkyl group; R 2 is a heterocycle of 5-12 atoms including 1-3 heteroatoms selected from the group consisting of N, O, P, and S with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 acyl, =O, benzyl, C 1 -C 6 alkyl ether, or aryl ether; R 3 is a primary, secondary, or tertiary alkyl group; and wherein the reacting step is conducted in the presence of a crown ether and an inorganic halide co-catalyst, wherein the crown ether is at least one ether selected from the group consisting of: 12-crown-4, 15-crown-5, 18-crown-6, and benzo- and dibenzo-crown ethers thereof. reacting a picolinamide of Formula (I): with a substituted chloroacylal of Formula (II): to produce a compound of Formula (III): wherein: R 1 is a primary or secondary alkyl group; R 2 is a heterocycle of 5-12 atoms including 1-3 heteroatoms selected from the group consisting of N, O, P, and S with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 acyl, =O, benzyl, C 1 -C 6 alkyl ether, or aryl ether; R 3 is a primary, secondary, or tertiary alkyl group; and wherein the reacting step is conducted in the presence of a crown ether and an inorganic halide co-catalyst, wherein the crown ether is at least one ether selected from the group consisting of: 12-crown-4, 15-crown-5, 18-crown-6, and benzo- and dibenzo-crown ethers thereof. R 1 is a primary or secondary alkyl group; R 2 is a heterocycle of 5-12 atoms including 1-3 heteroatoms selected from the group consisting of N, O, P, and S with one or more substituents selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 acyl, =O, benzyl, C 1 -C 6 alkyl ether, or aryl ether; R 3 is a primary, secondary, or tertiary alkyl group; and wherein the reacting step is conducted in the presence of a crown ether and an inorganic halide co-catalyst, wherein the crown ether is at least one ether selected from the group consisting of: 12-crown-4, 15-crown-5, 18-crown-6, and benzo- and dibenzo-crown ethers thereof.