mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting a discovery signal by a Device-to-Device, D2D, User Equipment, UE , in a wireless communication system, the method comprising: determining a time-frequency resource on which the discovery signal is to be transmitted in multiple discovery periods; and transmitting the discovery signal on the time-frequency resource in the multiple discovery periods; wherein the discovery signal is transmitted "b" times in each of the multiple discovery periods, "b" corresponds to a number of times the discovery signal is transmitted in each of the discovery periods, the discovery signal is repeated on consecutive time resources within each of the discovery periods, and frequency resource in each of the consecutive time resources is respectively hopped by floor(Nf/b) where Nf is a number of discovery resources per subframe, and wherein a frequency resource index on which the discovery signal is transmitted in a current discovery period within the multiple discovery periods is respectively determined by (f shift + floor((nf + Nf ∗ nt)/Nt)) mod Nf where Nt is the number of subframes per discovery period, f shift is a frequency shift, nf is a frequency resource index on which the discovery signal is transmitted in a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted in the previous discovery period, and wherein, for a plurality of cells located in a same site, the frequency shift is set to a same value. determining a time-frequency resource on which the discovery signal is to be transmitted in multiple discovery periods; and transmitting the discovery signal on the time-frequency resource in the multiple discovery periods; wherein the discovery signal is transmitted "b" times in each of the multiple discovery periods, "b" corresponds to a number of times the discovery signal is transmitted in each of the discovery periods, the discovery signal is repeated on consecutive time resources within each of the discovery periods, and frequency resource in each of the consecutive time resources is respectively hopped by floor(Nf/b) where Nf is a number of discovery resources per subframe, and wherein a frequency resource index on which the discovery signal is transmitted in a current discovery period within the multiple discovery periods is respectively determined by (f shift + floor((nf + Nf ∗ nt)/Nt)) mod Nf where Nt is the number of subframes per discovery period, f shift is a frequency shift, nf is a frequency resource index on which the discovery signal is transmitted in a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted in the previous discovery period, and wherein, for a plurality of cells located in a same site, the frequency shift is set to a same value.
Package or product comprising a non-opened position and an opened position, in which opened position the package or product comprises at least one expanded space for contents or objects, which at least one expanded space is formed of at least one flexible part , which is a flexible pouch type container part, and in which package or product to the at least one flexible part is attached at least one stiff support part , in which package or product the at least one stiff support part forms in the opened position at least part of wall structure of the package or product , in which opened position the support part of stiff material converts to different position and forms walls of the package or product, while the flexible part remains unbroken adapting to the configuration of the stiff support part, which package or product further comprises at least one opening point , in which package or product the at least one flexible part and the at least one stiff support part form the at least one expanded space for the objects or contents and the at least one flexible part is fitted to form the expanded space for the objects or contents adapting to the support structure formed by the at least one stiff support part , and which package or product is self-standing, in which non-opened position the package or product is planar and pouch-like and in opened position the package or product is three-dimensional having a substantially depth directional dimension, which stiff support part comprises creases such as bend lines, cut lines, cut outs and/or tear lines for folding, cutting and/or tearing to open the package or product and to configure the form for the at least one expanded space for the objects or contents, when the stiff material of the stiff support part is bent, wherein the at least one stiff support part forms a supporting structure for the expanded space and the shape of the expanded and opened space in the opened position of the package or product , characterized in that the expanded and opened space of the package or product is configured to be opened at the at least one opening point at the stiff support part .
A negative electrode plate, comprising: a negative electrode current collector , comprising an organic support layer and a metal conductive layer disposed on at least one surface of the organic support layer ; a negative electrode active material layer , comprising at least a first active material layer , the first active material layer being disposed on the surface of the metal conductive layer away from the organic support layer , and the first active material layer comprising a first active material; wherein in a first cross section in a thickness direction of the negative electrode plate, the first active material has a size a in a direction parallel to the metal conductive layer , the first active material has a size b in the thickness direction, and a and b satisfy 0.8 ≤ a / b ≤ 20; and in a second cross section in the thickness direction of the negative electrode plate, the first active material has a size c in the direction parallel to the metal conductive layer , the first active material has a size d in the thickness direction, and c and d satisfy 0.8 ≤ c / d ≤ 20; and the first cross section is parallel to a first direction, the second cross section is parallel to a second direction, and the first direction intersects with the second direction. a negative electrode current collector , comprising an organic support layer and a metal conductive layer disposed on at least one surface of the organic support layer ; a negative electrode active material layer , comprising at least a first active material layer , the first active material layer being disposed on the surface of the metal conductive layer away from the organic support layer , and the first active material layer comprising a first active material; wherein in a first cross section in a thickness direction of the negative electrode plate, the first active material has a size a in a direction parallel to the metal conductive layer , the first active material has a size b in the thickness direction, and a and b satisfy 0.8 ≤ a / b ≤ 20; and in a second cross section in the thickness direction of the negative electrode plate, the first active material has a size c in the direction parallel to the metal conductive layer , the first active material has a size d in the thickness direction, and c and d satisfy 0.8 ≤ c / d ≤ 20; and the first cross section is parallel to a first direction, the second cross section is parallel to a second direction, and the first direction intersects with the second direction.
Premix for the production of active compound-containing tablets, comprising a co-mixture of polyvinyl alcohols (PVAs) which have average particle sizes < 100 μm, and microcrystalline celluloses (MCCs).
A method for detecting a fault in a CPU , the method comprising; receiving from the CPU, a first signal to be monitored which represents a change of an input state of the CPU, said first signal to be monitored having a value, generating a first hash index key for the first signal to be monitored, searching , using said generated first hash index key, a hash table ( for an entry matching the value of the received first signal, wherein entries of the hash table comprise values of signals to be monitored and an associated action, and if a matching entry is not found, completing a first action, and if a matching entry is found, completing a second action associated with the found matching entry, wherein the second action comprises: enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching , using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal. if a matching entry is not found, completing a first action, and if a matching entry is found, completing a second action associated with the found matching entry, wherein the second action comprises: enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching , using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal. enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching , using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal.
A reconfigurable wrapping mechanism for forming a substantially cylindrical wrapped element by wrapping a core within a web material , comprising a reconfigurable garniture bed having an elongate formation channel for supporting a conveying belt extending along the length of the elongate formation channel for entraining the web material , and wherein the elongate formation channel has an elongate open side, wherein the garniture bed comprises a plurality of garniture bed sub-members (110A-110C), wherein, in a direction extending around the surface of the elongate formation channel perpendicular to the length of elongate formation channel , each garniture bed sub-member (110A-110C) provides a portion of the surface of the elongate formation channel , and wherein at least one of the garniture bed sub-members (110A-110C) is configured for movement (M-1, M-2, M-3) transverse to the length of the elongate formation channel , characterized in that adjacent edges (314-1, 314-2) of the or a plurality of the garniture bed sub-members (110A-110C) are interdigitated, and wherein the elongate formation channel has a central axis extending along its length and the garniture bed sub-members (110A-110C) are configured for substantially radial movement (M-1, M-2, M-3) relative to the central axis. wherein the garniture bed comprises a plurality of garniture bed sub-members (110A-110C), wherein, in a direction extending around the surface of the elongate formation channel perpendicular to the length of elongate formation channel , each garniture bed sub-member (110A-110C) provides a portion of the surface of the elongate formation channel , and wherein at least one of the garniture bed sub-members (110A-110C) is configured for movement (M-1, M-2, M-3) transverse to the length of the elongate formation channel , characterized in that adjacent edges (314-1, 314-2) of the or a plurality of the garniture bed sub-members (110A-110C) are interdigitated, and wherein the elongate formation channel has a central axis extending along its length and the garniture bed sub-members (110A-110C) are configured for substantially radial movement (M-1, M-2, M-3) relative to the central axis.
A reference signal distribution system , comprising: a power splitter configured to create, from a frequency-divided reference signal, a counterclockwise divided reference signal and a clockwise divided reference signal; at least one ring tap ; a distribution ring operable to provide the counterclockwise divided reference signal from the power splitter to the ring tap, and to provide the clockwise divided reference signal from the power splitter to the ring tap, wherein the ring tap is configured to produce a phase synchronization signal based on the counterclockwise divided reference signal and the clockwise divided reference signal; and an analog regenerative frequency divider configured to produce a common phase reference signal based in part on the phase synchronization signal. a power splitter configured to create, from a frequency-divided reference signal, a counterclockwise divided reference signal and a clockwise divided reference signal; at least one ring tap ; a distribution ring operable to provide the counterclockwise divided reference signal from the power splitter to the ring tap, and to provide the clockwise divided reference signal from the power splitter to the ring tap, wherein the ring tap is configured to produce a phase synchronization signal based on the counterclockwise divided reference signal and the clockwise divided reference signal; and an analog regenerative frequency divider configured to produce a common phase reference signal based in part on the phase synchronization signal.
Device for machining a workpiece plate with a rotating tool , with a cooling ring surrounding the tool coaxially to its axis of rotation and the cooling ring being connected to a pressure line for a cooling liquid to form a cooling liquid crown directed towards the circumference of the tool and with at least one sliding surface for the workpiece plate formed by the cooling ring , provided in a circumferential section of the cooling liquid crown for the workpiece plate , characterized in that the cooling ring has spray channels which are distributed over its circumference, are aligned towards the circumference of the tool and open out in the sliding surface region in the sliding surface and are each connected by a throttle to an annular channel which is connected to the pressure line for the cooling liquid.
An ion exchange membrane obtained by using an ionic monomer having at least two or more polymerizable functional groups, wherein a hydrophobicity index H obtained by an expression below from a monomer for forming an ion exchange resin in the ion exchange membrane and a material fixed to the resin is 1.6 or greater, and wherein the ionic monomer includes a sulfonic acid group or a salt thereof. Hydrophobicity index H = Σ log P of each component × molar ratio of each material in resin , wherein log P represents the octanol-water distribution coefficient which is calculated based on Crippen's fragmentation as defined in the description and in case of a salt, log P is calculated by conversion to a nonionic structure which is not the salt, as defined in the description.
A method for automatically regulating the speed (V 0 ) of a host motor vehicle , comprising, when at least two third-party motor vehicles precede the host motor vehicle in its lane, the steps of: - acquisition of at least one datum (D 1 , D 2 , ΔV 1 , ΔV 2 , TIV 1 , TIV 2 ) relating to the dynamics of each third-party motor vehicle , and - determination of a control setpoint for means for controlling the speed (V 0 ) of the host motor vehicle , wherein, when the two third-party motor vehicles are stationary, a first of the third-party motor vehicles following a second of the third-party motor vehicles , and then the second third-party motor vehicle starts moving again, the control setpoint is determined as a function of at least said at least one datum (D 2 , ΔV 2 , TIV 2 ) relating to the dynamics of the second third-party motor vehicle , characterized in that, since the host motor vehicle has an internal combustion engine and a system for automatically stopping and restarting the internal combustion engine, the control setpoint is designed in such a way that the stop and restart system automatically restarts the internal combustion engine after the second third-party motor vehicle has set off again and before the first third-party motor vehicle sets off again. - acquisition of at least one datum (D 1 , D 2 , ΔV 1 , ΔV 2 , TIV 1 , TIV 2 ) relating to the dynamics of each third-party motor vehicle , and - determination of a control setpoint for means for controlling the speed (V 0 ) of the host motor vehicle , wherein, when the two third-party motor vehicles are stationary, a first of the third-party motor vehicles following a second of the third-party motor vehicles , and then the second third-party motor vehicle starts moving again, the control setpoint is determined as a function of at least said at least one datum (D 2 , ΔV 2 , TIV 2 ) relating to the dynamics of the second third-party motor vehicle , characterized in that, since the host motor vehicle has an internal combustion engine and a system for automatically stopping and restarting the internal combustion engine, the control setpoint is designed in such a way that the stop and restart system automatically restarts the internal combustion engine after the second third-party motor vehicle has set off again and before the first third-party motor vehicle sets off again.
Wire arrangement fixation comb configured to fix a wire arrangement in a low voltage compartment, the comb comprising a number of parallel teeth , between which the wires or cables can be arranged, wherein each tooth is provided on both flanks with bendable or flexible slit flags , which are configured to fix the wires in position, after they are inserted between the teeth of the fixation comb, characterized in that the flags on both flanks are slit in alternating wavelike line, in such, that the wavelined flag of one flank of a first tooth is shifted, and complementarily fits into the wavelined flag of a second directly neighbouring tooth, and so on.
An X-ray diffraction apparatus which irradiates a sample (S) set on a sample stand with X-rays generated from an X-ray source , and detects the X-rays diffracted by the sample (S) using a detector , the X-ray diffraction apparatus comprising said sample stand , X-ray source and detector and a goniometer, wherein the detector has a detection surface formed of a plurality of detection elements arrayed two-dimensionally in a first direction and a second direction that are perpendicular to each other and disposed on a gonio-circle of said goniometer, and outputs a detection signal according to intensity of the X-rays received by the detection element , for each of the plurality of detection elements forming the detection surface , the X-ray diffraction apparatus further comprising: a virtual mask setting section capable of setting a virtual mask which changes a measurement resolution of the X-ray diffraction on the detection surface of the detector and setting at least an opening dimension of the virtual mask as an opening condition of the virtual mask independently in the first direction and the second direction; and a signal processing section which processes the detection signal outputted from the detector according to the opening condition of the virtual mask set by the virtual mask setting section . a virtual mask setting section capable of setting a virtual mask which changes a measurement resolution of the X-ray diffraction on the detection surface of the detector and setting at least an opening dimension of the virtual mask as an opening condition of the virtual mask independently in the first direction and the second direction; and a signal processing section which processes the detection signal outputted from the detector according to the opening condition of the virtual mask set by the virtual mask setting section .
Gas turbine engine comprising a compressor with rotor blades having roots connected into seats of a compressor drum , characterised in that both the rotor blade roots and the compressor drum have longitudinal passages for a cooling fluid, connecting higher pressure areas to lower pressure areas of the gas turbine engine, wherein the seats are defined by longitudinal slots into which the blade roots are inserted, wherein the longitudinal passages of the blade roots and the longitudinal passages of the rotor drum have axes parallel to an engine longitudinal axis and have the same radial distance from it, wherein the passages of the blade roots are defined by longitudinal channels provided in the blade roots , and wherein the blade roots inserted into the same seat have their channels connected together.
An image forming apparatus comprising: - a power supply unit for supplying electric power to a constituent unit of the image forming apparatus from a main power source; - a to-be-used function setting unit for setting a function to be used when the main power source is turned on; and - a function-specific power supply control unit for controlling the power supply unit to supply electric power to a constituent unit (12, 15, 16, 17, 18, 42b, 44, 45,) corresponding to a function that has been set by the to-be-used function setting unit when the main power source is turned on, and for supplying electric power to a constituent unit corresponding to a function that has not been set by the to-be-used function setting unit when the function that has not been set is selected after turning the main power source, characterized in that , the image forming apparatus further comprises: - an actually used function status acquiring unit for acquiring a situation of a function that has been actually used when the main power source had been turned on; and - a to-be-used function setting change commanding unit for notifying a user to prompt the user to change the function set by the to-be-used function setting unit according to the situation of the function, the situation having been acquired by the actually used function status acquiring unit . - a power supply unit for supplying electric power to a constituent unit of the image forming apparatus from a main power source; - a to-be-used function setting unit for setting a function to be used when the main power source is turned on; and - a function-specific power supply control unit for controlling the power supply unit to supply electric power to a constituent unit (12, 15, 16, 17, 18, 42b, 44, 45,) corresponding to a function that has been set by the to-be-used function setting unit when the main power source is turned on, and for supplying electric power to a constituent unit corresponding to a function that has not been set by the to-be-used function setting unit when the function that has not been set is selected after turning the main power source, - an actually used function status acquiring unit for acquiring a situation of a function that has been actually used when the main power source had been turned on; and - a to-be-used function setting change commanding unit for notifying a user to prompt the user to change the function set by the to-be-used function setting unit according to the situation of the function, the situation having been acquired by the actually used function status acquiring unit .