mhurhangee/ep-ind-claims huggingface dataset:
A method for hybrid automatic repeat request operation for uplink coordinated multi-point signaling, in a network comprising a user equipment and a plurality of network elements, the method comprising: sending, by the user equipment, a data packet to each of a plurality of network elements (120, 130; 1620, 1622); receiving, by the user equipment, directly from each of the plurality of network elements, a hybrid automatic repeat request response; if the hybrid automatic repeat request response from each of the plurality of network elements is a negative acknowledgment indicating that the network element was unable to decode the data packet, retransmitting the data packet to only one network element of the plurality of network elements; if the data packet retransmitted to the only one of the plurality of network elements is successfully decoded at the only one of the plurality of network elements, sending (1660;1780;1880), by the user equipment, a further data packet to each of the plurality of network elements (120, 130; 1620, 1622); and the method is characterised in that if the hybrid automatic repeat request response from at least one of the plurality of network elements is a positive acknowledgment, sending by the user equipment a termination indicator to each of the plurality of network elements or to the only one of the plurality of network elements to indicate that backhaul communication is not necessary for conveying the hybrid automatic repeat request response. sending, by the user equipment, a data packet to each of a plurality of network elements (120, 130; 1620, 1622); receiving, by the user equipment, directly from each of the plurality of network elements, a hybrid automatic repeat request response; if the hybrid automatic repeat request response from each of the plurality of network elements is a negative acknowledgment indicating that the network element was unable to decode the data packet, retransmitting the data packet to only one network element of the plurality of network elements; if the data packet retransmitted to the only one of the plurality of network elements is successfully decoded at the only one of the plurality of network elements, sending (1660;1780;1880), by the user equipment, a further data packet to each of the plurality of network elements (120, 130; 1620, 1622); and the method is characterised in that if the hybrid automatic repeat request response from at least one of the plurality of network elements is a positive acknowledgment, sending by the user equipment a termination indicator to each of the plurality of network elements or to the only one of the plurality of network elements to indicate that backhaul communication is not necessary for conveying the hybrid automatic repeat request response.
A method for using a Secure Socket Layer session from a pool of SSL sessions shared between intermediaries, the method comprising: a) receiving, by a first intermediary, information on one or more SSL sessions of a pool established by a second intermediary with a server, the first intermediary in communication with one or more clients and the second intermediary in communication with one or more servers; b) receiving, by the first intermediary, a request from a client to establish an SSL session with the server; and c) identifying, by the first intermediary, an SSL session from the pool of SSL sessions; and d) establishing, by the first intermediary, the SSL session with the client responsive to the request. a) receiving, by a first intermediary, information on one or more SSL sessions of a pool established by a second intermediary with a server, the first intermediary in communication with one or more clients and the second intermediary in communication with one or more servers; b) receiving, by the first intermediary, a request from a client to establish an SSL session with the server; and c) identifying, by the first intermediary, an SSL session from the pool of SSL sessions; and d) establishing, by the first intermediary, the SSL session with the client responsive to the request.
Set for a power transmission system, the set comprising a first chain-ring, a second chain-ring having a common axis with the first chain-ring and provided with more teeth than the first chain-ring and a chain, wherein the second chain-ring is formed by segments (21, 22, 23, 24, 25, 26), the set comprising displacement means with axial component of the segments (21, 22, 23, 24, 25, 26) with respect to the first chain-ring such that the segments (21, 22, 23, 24, 25, 26) can be sequentially moved in a chain free zone such that at least two configurations for each segment (21, 22, 23, 24, 25, 26) are defined: - a first configuration wherein the segments (21, 22, 23, 24, 25, 26) are in a first position away from the first chain-ring in the direction of the common axis and wherein the chain can engage with the first chain-ring without interference of the segments (21, 22, 23, 24, 25, 26); - a second configuration wherein the segments (21, 22, 23, 24, 25, 26) are closer to the first chain-ring in the direction of the common axis than in the first configuration and wherein the chain can engage with the second chain-ring; wherein the axial displacement means are formed by guiding means and drivers, characterised in that the guiding means are configured for guiding the segments (21, 22, 23, 24, 25, 26) such that the relative movement of each tooth of the segments (21, 22, 23, 24, 25, 26) with respect to the first chain-ring, in its displacement from the first configuration to the second configuration, has a tangential component having the sense of the chain traction. - a first configuration wherein the segments (21, 22, 23, 24, 25, 26) are in a first position away from the first chain-ring in the direction of the common axis and wherein the chain can engage with the first chain-ring without interference of the segments (21, 22, 23, 24, 25, 26); - a second configuration wherein the segments (21, 22, 23, 24, 25, 26) are closer to the first chain-ring in the direction of the common axis than in the first configuration and wherein the chain can engage with the second chain-ring;
A method of drive system diagnostics of an aircraft comprising: capturing high load drivetrain component vibration data at select steady-state and load based transient vibration data at select high-load transient operating conditions of the aircraft utilizing physical load sensors or estimates from virtual monitoring of loads for loads monitoring of key drive system loads to trigger vibration data acquisition during desired load-based capture windows; processing the captured vibration data to improve reliability and/or accuracy of the captured vibration data; and utilizing the processed vibration data to provide a health assessment of the drivetrain components and achieve earlier detection of incipient faults. capturing high load drivetrain component vibration data at select steady-state and load based transient vibration data at select high-load transient operating conditions of the aircraft utilizing physical load sensors or estimates from virtual monitoring of loads for loads monitoring of key drive system loads to trigger vibration data acquisition during desired load-based capture windows; processing the captured vibration data to improve reliability and/or accuracy of the captured vibration data; and utilizing the processed vibration data to provide a health assessment of the drivetrain components and achieve earlier detection of incipient faults.
An in vitro method to increase expression of a gene comprising: introducing a small activating RNA (saRNA) molecule into a mammalian cell in an amount sufficient to increase expression of a gene, wherein the saRNA molecule comprises at least a first ribonucleic acid strand comprising a 5' region of complementarity to a promoter region sequence of the gene and a 3' terminal region of at least one nucleotide non-complementary to the promoter region sequence, wherein the introducing results in an increase in expression of the gene, wherein the gene is p21, E-cadherin, or vascular endothelial growth factor (VEGF). introducing a small activating RNA (saRNA) molecule into a mammalian cell in an amount sufficient to increase expression of a gene, wherein the saRNA molecule comprises at least a first ribonucleic acid strand comprising a 5' region of complementarity to a promoter region sequence of the gene and a 3' terminal region of at least one nucleotide non-complementary to the promoter region sequence, wherein the introducing results in an increase in expression of the gene, wherein the gene is p21, E-cadherin, or vascular endothelial growth factor (VEGF).
A sensor connector, comprising: at least one first shell (110, 130) adapted to be connected to at least one of a corresponding, first external plug and a corresponding, first external receptacle; at least one second shell (110, 130) adapted to be connected to at least one of a corresponding, second external plug and a corresponding, second external receptacle; at least one conductor (112, 132) for transmitting information through said sensor connector; at least one sensor for sensing said information from at least one conductor (112, 132); at least one circuit in communication with said at least one sensor, said at least one circuit comprising: (i) at least one memory device for storing said information; (ii) at least one processor for processing said stored information; and (iii) at least one communication port for transmitting said information to at least one external device, said communication port being separate and distinct from said at least one conductor (112, 132); and a housing (126, 128) mounted between said first shell (110, 130) and said second shell (110, 130), and substantially surrounding said at least one sensor and said at least one circuit. at least one first shell (110, 130) adapted to be connected to at least one of a corresponding, first external plug and a corresponding, first external receptacle; at least one second shell (110, 130) adapted to be connected to at least one of a corresponding, second external plug and a corresponding, second external receptacle; at least one conductor (112, 132) for transmitting information through said sensor connector; at least one sensor for sensing said information from at least one conductor (112, 132); at least one circuit in communication with said at least one sensor, said at least one circuit comprising: (i) at least one memory device for storing said information; (ii) at least one processor for processing said stored information; and (iii) at least one communication port for transmitting said information to at least one external device, said communication port being separate and distinct from said at least one conductor (112, 132); and (i) at least one memory device for storing said information; (ii) at least one processor for processing said stored information; and (iii) at least one communication port for transmitting said information to at least one external device, said communication port being separate and distinct from said at least one conductor (112, 132); and a housing (126, 128) mounted between said first shell (110, 130) and said second shell (110, 130), and substantially surrounding said at least one sensor and said at least one circuit.
A visible light communication "VLC" system, comprising: an array of light emitting diode "LED" elements configured to emit omnidirectional light; and control circuitry configured to control individual LED elements of the array of LED elements to sinusoidally vary an intensity of the omni-directional light emitted from the individual LED elements, where a data carrying light beam is generated within an information beam region by constructively combining sinusoidal intensity variations of the emitted omni-directional light and uniform intensity light is generated outside the information beam region by destructively combining the sinusoidal intensity variations of the emitted omni-directional light, wherein the control circuitry is configured to control amplitude and phase of the sinusoidal variations of the intensity of the omnidirectional light emitted from the individual LED elements to generate the data carrying light beam in a defined direction, and data is carried by the light signal from each of the LED elements as amplitude variation levels. an array of light emitting diode "LED" elements configured to emit omnidirectional light; and control circuitry configured to control individual LED elements of the array of LED elements to sinusoidally vary an intensity of the omni-directional light emitted from the individual LED elements, where a data carrying light beam is generated within an information beam region by constructively combining sinusoidal intensity variations of the emitted omni-directional light and uniform intensity light is generated outside the information beam region by destructively combining the sinusoidal intensity variations of the emitted omni-directional light, wherein the control circuitry is configured to control amplitude and phase of the sinusoidal variations of the intensity of the omnidirectional light emitted from the individual LED elements to generate the data carrying light beam in a defined direction, and data is carried by the light signal from each of the LED elements as amplitude variation levels.
A method for producing a housing (100..125) with at least one hermetically sealed receptacle space (12, 19, 20) for an electronic device, which comprises at least part of an interior of the housing (100..125), with the method comprising the steps of: - producing/supplying a hollow body of glass with at least one opening, - introducing, positioning and/or fixing at least one electronic device through the at least one opening, - hermetically sealing the receptacle space (12, 19, 20) by fusing together the housing (100..125) or - closing and welding the at least one opening by means of laser radiation, characterized in that the housing is realized in the form of a cuboid or disk and consists of two housing parts (101..125), wherein the two housing parts (101..125) are welded to one another by means of laser radiation with an energy output in the nanosecond and/or picosecond range. - producing/supplying a hollow body of glass with at least one opening, - introducing, positioning and/or fixing at least one electronic device through the at least one opening, - hermetically sealing the receptacle space (12, 19, 20) by fusing together the housing (100..125) or - closing and welding the at least one opening by means of laser radiation,
An epoxy functionalized surfactant composition comprising a reaction product of: (a) a hydrophilic material comprising an intermediate material comprising a reaction product of: (i) an alkylene glycol compound and (ii) an anhydride compound, and (b) an epoxy resin hydrophobe material having an average molecular weight of 800 Daltons to 4,000 Daltons (measured by size exclusion chromatography). (a) a hydrophilic material comprising an intermediate material comprising a reaction product of: (i) an alkylene glycol compound and (ii) an anhydride compound, and (b) an epoxy resin hydrophobe material having an average molecular weight of 800 Daltons to 4,000 Daltons (measured by size exclusion chromatography).
A multilayer barrier film comprising: ▪ a substrate layer coated on one side with a barrier layer, wherein the barrier layer is made of a material selected from the group consisting of a metal oxide, a metal carbide, a metal nitride and a metal oxynitride; ▪ a nanostructured metal compound layer arranged on the barrier layer; and ▪ a planarising layer arranged on the nanostructured layer, wherein the planarising layer comprises a nanostructured material which is distributed in a polymeric binder, wherein the nanostructured material is made of carbon, or a metal or a metal oxide or a mixture of the aforementioned substances. ▪ a substrate layer coated on one side with a barrier layer, wherein the barrier layer is made of a material selected from the group consisting of a metal oxide, a metal carbide, a metal nitride and a metal oxynitride; ▪ a nanostructured metal compound layer arranged on the barrier layer; and ▪ a planarising layer arranged on the nanostructured layer, wherein the planarising layer comprises a nanostructured material which is distributed in a polymeric binder, wherein the nanostructured material is made of carbon, or a metal or a metal oxide or a mixture of the aforementioned substances.
A pelvic floor muscle supporting aid comprising: an annular part which is provided so as to be situated at a position corresponding to an outer peripheral portion of a vaginal opening when the pelvic floor muscle supporting aid is worn; and a pulling part which is coupled with the annular part and pulls the annular part in a front direction and a back direction of the vaginal opening to narrow an interval between left and right side portions (21, 22) of the annular part, the left and right side portions (21, 22) being situated on left and right of the vaginal opening, the pelvic floor muscle supporting aid being of an underpants type having a front body, a back body, and a crotch part, wherein the annular part is provided in a range including the crotch part; and the pulling part has a front pulling part provided on a range in the front body and a back pulling part provided on a range in the back body, wherein: the front pulling part includes a plurality of front pulling parts which are formed to fan out from a front portion of the annular part toward an upper portion of the front body; the back pulling part has one end connected to a vicinity of a middle portion of a back portion of the annular part and has the other end extending toward an upper portion of the back body; and characterized in that at least part of the annular part bulges in a thickness direction an annular part which is provided so as to be situated at a position corresponding to an outer peripheral portion of a vaginal opening when the pelvic floor muscle supporting aid is worn; and a pulling part which is coupled with the annular part and pulls the annular part in a front direction and a back direction of the vaginal opening to narrow an interval between left and right side portions (21, 22) of the annular part, the left and right side portions (21, 22) being situated on left and right of the vaginal opening, the pelvic floor muscle supporting aid being of an underpants type having a front body, a back body, and a crotch part, wherein the annular part is provided in a range including the crotch part; and the pulling part has a front pulling part provided on a range in the front body and a back pulling part provided on a range in the back body, wherein: the front pulling part includes a plurality of front pulling parts which are formed to fan out from a front portion of the annular part toward an upper portion of the front body; the back pulling part has one end connected to a vicinity of a middle portion of a back portion of the annular part and has the other end extending toward an upper portion of the back body; and characterized in that at least part of the annular part bulges in a thickness direction the front pulling part includes a plurality of front pulling parts which are formed to fan out from a front portion of the annular part toward an upper portion of the front body; the back pulling part has one end connected to a vicinity of a middle portion of a back portion of the annular part and has the other end extending toward an upper portion of the back body; and characterized in that at least part of the annular part bulges in a thickness direction
A method for compressing a gaseous fuel for fueling a vehicle by alternate gas supply into two vertically arranged compressing vessels (1,2), each of which having one neck in the upper part thereof, with further compression of gas and forcing it out into the fuel tank of the vehicle by alternately filling the compressing vessels (1,2) with working fluid under pressure, each cycle of gas forced out from the corresponding compressing vessel being performed by directly transferring the working fluid from one of the compressing vessels (1 or 2) into the other compressing vessel (2 or 1), until the working fluid completely fills said other compressing vessel (2 or 1), characterized in that said transferring of the working fluid is performed until its flow reaches the lower edge of a movable closing element of a shut-off device mounted in said upper neck of the compressing vessel (1,2), and displaces said movable closing element in an outlet gas channel of said shut-off device upwards from its lower position, thus closing the seat of a valve of the outlet pipeline for pumping the gas into the fuel tank of the vehicle with a tapered portion of said movable closing element before said working fluid reaches said seat of valve of said outlet pipeline for pumping the gas into the fuel tank of the vehicle, said upward movement of the movable closing element activating a fluid-level sensor placed at the outer side of the body of the shut-off device, which generates a signal for a control unit to change the direction of pumping the working fluid to reverse mode for a new similar cycle of pumping the working fluid from the compressing vessel (2 or 1) which is completely filled therewith to the other compressing vessel (1 or 2) which is filled with gas and working fluid, where the amount of said working fluid is enough for compensation of the possible difference of inner volumes of compressing vessels (1, 2).
A method of operating a system comprising an input member, an output member, a magnetic gear connecting the input member to the output member and control means arranged to control the flow of power from the input member to the output member, wherein the magnetic gear comprises a first set of magnetic poles (112, 164), a second set of magnetic poles (115, 165) produced by a set of windings mounted on a stator of the magnetic gear, the current in the windings being controllable by the control means, and a set of pole pieces (113, 162) arranged to modulate the magnetic field between the first set of magnetic poles and the second set of magnetic poles, wherein the control means comprises means for reducing the transmission of torque pulsation and/or oscillation from the input member to the output member, wherein the method comprises the control means: (a) receiving a first signal indicative of at least the speed of the input member; (b) receiving a second signal indicative of at least a desired speed of the output member; and (c) based on the first signal and the second signal, identifying a value for the current in the windings to give the desired speed of the output member; characterized by (d) controlling the current in the windings to be substantially constantly at that the value, irrespective of cyclic variation in the speed and torque of the input member. (a) receiving a first signal indicative of at least the speed of the input member; (b) receiving a second signal indicative of at least a desired speed of the output member; and (c) based on the first signal and the second signal, identifying a value for the current in the windings to give the desired speed of the output member; characterized by (d) controlling the current in the windings to be substantially constantly at that the value, irrespective of cyclic variation in the speed and torque of the input member.