mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a high-priority service in direct mode, comprising: receiving, by a user terminal, an instruction of transmitting the high-priority service, from a user when the user terminal is in a state of receiving a voice call in a receiving timeslot of a channel, wherein the channel comprises the receiving timeslot and an idle timeslot; generating, by the user terminal, according to the instruction, a priority frame and a high-priority service frame; transmitting, by the user terminal, the priority frame in the idle timeslot to enable a receiving party to identify the high-priority service, after stopping receiving the voice call; and transmitting, by the user terminal, the high-priority service frame in the idle timeslot after transmitting the priority frame, wherein the priority frame comprises a service level indicator associated with a level of authority of the user to enable the receiving party to determine whether to interrupt the voice call according to the service level indicator. receiving, by a user terminal, an instruction of transmitting the high-priority service, from a user when the user terminal is in a state of receiving a voice call in a receiving timeslot of a channel, wherein the channel comprises the receiving timeslot and an idle timeslot; generating, by the user terminal, according to the instruction, a priority frame and a high-priority service frame; transmitting, by the user terminal, the priority frame in the idle timeslot to enable a receiving party to identify the high-priority service, after stopping receiving the voice call; and transmitting, by the user terminal, the high-priority service frame in the idle timeslot after transmitting the priority frame, wherein the priority frame comprises a service level indicator associated with a level of authority of the user to enable the receiving party to determine whether to interrupt the voice call according to the service level indicator.
A glazing unit comprising a transparent, especially glass, substrate equipped with an antireflection coating, which coating comprises at least one film of a porous material essentially comprising silicon, oxygen, carbon and possibly hydrogen, characterized in that the atomic proportion P C of carbon, relative to the sum of the atomic contributions of silicon, oxygen and carbon, varies locally in the thickness direction of the film, from a first surface to a second surface thereof: - increasing between a first minimum value P Cmin1 and a maximum value P Cmax, the ratio of said maximum value P Cmax to said first minimum value P Cmin1 being at least 1.2; and - the proportion of carbon then decreasing, between said maximum value P Cmax and a second minimum value P Cmin2, the ratio of said maximum value P Cmax to said second minimum value P Cmin2 being at least 1.2. - increasing between a first minimum value P Cmin1 and a maximum value P Cmax, the ratio of said maximum value P Cmax to said first minimum value P Cmin1 being at least 1.2; and - the proportion of carbon then decreasing, between said maximum value P Cmax and a second minimum value P Cmin2, the ratio of said maximum value P Cmax to said second minimum value P Cmin2 being at least 1.2.
A method of producing a water-in-oil soft butter product comprising: separating the fat and aqueous fractions of a concentrated cream, the concentrated cream having at least 80 percent by weight milkfat; heating the fat fraction; combining the fat and aqueous fractions to form a butter mixture, such that the mixture includes the same fat and aqueous fractions as the concentrated cream and is at least 80 percent by weight milkfat; processing the mixture using at least two steps of cooling, each cooling step followed by mixing and a final high shear mixing step to generate a fine, homogenous crystal structure in the water-in-oil soft butter product. separating the fat and aqueous fractions of a concentrated cream, the concentrated cream having at least 80 percent by weight milkfat; heating the fat fraction; combining the fat and aqueous fractions to form a butter mixture, such that the mixture includes the same fat and aqueous fractions as the concentrated cream and is at least 80 percent by weight milkfat; processing the mixture using at least two steps of cooling, each cooling step followed by mixing and a final high shear mixing step to generate a fine, homogenous crystal structure in the water-in-oil soft butter product.
A Gate in Panel, GIP circuit, comprising a plurality of sequentially connected drive units, each drive unit connecting to a drive control line, a first gate line, a second gate line, a first clock signal line and a second clock signal line (CLK1B), wherein the drive unit comprises first to eighth transistors (M1-M8), a first capacitor and a second capacitor, the first transistor connected between the drive control line and a first node and having a first gate in connection with the first clock signal line, the second transistor connected between the first clock signal line and a third node and having a second gate in connection with the first node, the third transistor connected between the second clock signal line (CLK1B) and a fourth node and having a third gate in connection with the third node, the fourth transistor connected between a second node and the fourth node and having a fourth gate in connection with the second clock signal line (CLK1B), the fifth transistor connected between the third node and the second gate line and having a fifth gate in connection with the first clock signal line, the sixth transistor connected between the first gate line and the second node and having a sixth gate in connection with the first node, the seventh transistor connected between the first gate line and an output terminal (EMOUT) and having a seventh gate in connection with the second node, the eighth transistor connected between the second gate line and the output terminal (EMOUT) and having an eighth gate in connection with the first node, the first capacitor connected between the third node and the fourth node, characterized in that the second capacitor is connected between the first node and the output terminal (EMOUT).
A multicast packet processing method, comprising: receiving, by a first network node, a first multicast packet sent by a second network node, wherein the second network node is any neighboring network node of the first network node, and the neighboring network node is a network node connected to the first network node; characterized by starting, by the first network node, a trickle timer corresponding to the first multicast packet, and executing a first trickle period in e trickle periods of the trickle timer, wherein e is an integer greater than or equal to 2; determining, by the first network node, whether a quantity Z1 of first multicast packets that are received in the first trickle period before a sending moment T1 is less than or equal to a first redundancy constant K1, wherein K1 is an integer greater than a quantity of neighboring network nodes, and T1 is a preset moment in the first trickle period; if Z1 is less than or equal to K1, broadcasting, by the first network node, the first multicast packet; determining, by the first network node, whether a quantity Z2 of first multicast packets that are received in a second trickle period before a sending moment T2 is greater than or equal to a second redundancy constant K2, wherein K2 is an integer equal to the quantity of neighboring network nodes, and T2 is a preset moment in the second trickle period; and if Z2 is greater than or equal to K2, stopping, by the first network node, broadcast of the first multicast packet in the second trickle period; or if Z2 is less than K2, broadcasting, by the first network node, the first multicast packet. receiving, by a first network node, a first multicast packet sent by a second network node, wherein the second network node is any neighboring network node of the first network node, and the neighboring network node is a network node connected to the first network node; characterized by starting, by the first network node, a trickle timer corresponding to the first multicast packet, and executing a first trickle period in e trickle periods of the trickle timer, wherein e is an integer greater than or equal to 2; determining, by the first network node, whether a quantity Z1 of first multicast packets that are received in the first trickle period before a sending moment T1 is less than or equal to a first redundancy constant K1, wherein K1 is an integer greater than a quantity of neighboring network nodes, and T1 is a preset moment in the first trickle period; if Z1 is less than or equal to K1, broadcasting, by the first network node, the first multicast packet; determining, by the first network node, whether a quantity Z2 of first multicast packets that are received in a second trickle period before a sending moment T2 is greater than or equal to a second redundancy constant K2, wherein K2 is an integer equal to the quantity of neighboring network nodes, and T2 is a preset moment in the second trickle period; and if Z2 is greater than or equal to K2, stopping, by the first network node, broadcast of the first multicast packet in the second trickle period; or if Z2 is less than K2, broadcasting, by the first network node, the first multicast packet.
A data transmission method, comprising: obtaining, by a first user equipment (300, 400), time resource grouping information, wherein the time resource grouping information comprises time resource numbers in N time resource groups, and N is a positive integer; sending, by the first user equipment (300, 400), an indication signal, wherein the indication signal comprises a resource pattern of transmission, RPT, field, and the RPT field is used to indicate one or more time resource numbers; determining, by the first user equipment (300, 400) according to the formula ñ ( n group) = mod( ñ RPT + f ( n group), N group), a time resource number ñ ( n group) occupied by the data signal in a time resource group n group, wherein mod() is a mod function, n group is a time resource group sequence number, a value of n group is zero or a positive integer, ñ RPT is any time resource number in the one or more time resource numbers indicated by the indication signal, a value of ñ RPT is zero or a positive integer, N group is a quantity of time resources in the time resource group n group, a value of N group is a positive integer, and f ( n group) is a time resource adjustment value in the time resource group n group; and sending, by the first user equipment (300, 400), the data signal by using the time resources occupied by the data signal in the N time resource groups. obtaining, by a first user equipment (300, 400), time resource grouping information, wherein the time resource grouping information comprises time resource numbers in N time resource groups, and N is a positive integer; sending, by the first user equipment (300, 400), an indication signal, wherein the indication signal comprises a resource pattern of transmission, RPT, field, and the RPT field is used to indicate one or more time resource numbers; determining, by the first user equipment (300, 400) according to the formula ñ ( n group) = mod( ñ RPT + f ( n group), N group), a time resource number ñ ( n group) occupied by the data signal in a time resource group n group, wherein mod() is a mod function, n group is a time resource group sequence number, a value of n group is zero or a positive integer, ñ RPT is any time resource number in the one or more time resource numbers indicated by the indication signal, a value of ñ RPT is zero or a positive integer, N group is a quantity of time resources in the time resource group n group, a value of N group is a positive integer, and f ( n group) is a time resource adjustment value in the time resource group n group; and sending, by the first user equipment (300, 400), the data signal by using the time resources occupied by the data signal in the N time resource groups.
A preparation method for olfactory ensheathing cells, comprising the following steps: culturing single olfactory ensheathing cells derived from the olfactory mucosa of upper and middle turbinate in an culture medium for olfactory ensheathing cells under the condition of 37°C and 5% CO 2, and allowing the cells grow adherently, the culture medium for olfactory ensheathing cells is DMEM/DF12 (Gibco) as a basic culture medium, supplemented with the neurotrophic factors comprising 20-60 ng/ml EGF, 20-80 ng/ml FGF, 1-2 ml N2 (100×), 2-3 ml B27 (50×) and 0.1 μg/ml T3 (Sigma) at final concentrations; collecting and filtering a culture supernatant obtained from step when the cells grow adherently to around 90% to obtain a filtered cell culture supernatant, mixing the filtered cell culture supernatant with the culture medium for olfactory ensheathing cells in a ratio of 1: 3 to formulate a culture medium for passage, mixing the cells obtained by filtering the culture supernatant obtained from step with the culture medium for passage, culturing under the condition of 37°C and 5% CO 2, and allowing the cells grow adherently. culturing single olfactory ensheathing cells derived from the olfactory mucosa of upper and middle turbinate in an culture medium for olfactory ensheathing cells under the condition of 37°C and 5% CO 2, and allowing the cells grow adherently, the culture medium for olfactory ensheathing cells is DMEM/DF12 (Gibco) as a basic culture medium, supplemented with the neurotrophic factors comprising 20-60 ng/ml EGF, 20-80 ng/ml FGF, 1-2 ml N2 (100×), 2-3 ml B27 (50×) and 0.1 μg/ml T3 (Sigma) at final concentrations; collecting and filtering a culture supernatant obtained from step when the cells grow adherently to around 90% to obtain a filtered cell culture supernatant, mixing the filtered cell culture supernatant with the culture medium for olfactory ensheathing cells in a ratio of 1: 3 to formulate a culture medium for passage, mixing the cells obtained by filtering the culture supernatant obtained from step with the culture medium for passage, culturing under the condition of 37°C and 5% CO 2, and allowing the cells grow adherently.
Part to be crimped on a support, comprising a support head and a shaft comprising a crimping section designed to be deformed when a crimping operation of the part is performed, the crimping section comprising a first hollow section adjacent to the support head and a second section adjacent to the first section, the second section being configured to be deformed outside the part into a crimp bead to crimp the part onto the support, the first section comprising a bend salient towards the inside of the hollow of the shaft and subdividing the first section into a first truncated cone portion adjacent to the support head and widened in the direction of the support head and a second truncated cone portion adjacent to the second section and widened in the opposite direction to the support head, the first section being configured to be deformed inside the hollow of the shaft into a clearing bead to limit the forces exerted on the support when the crimping operation of the part is performed, the second section having a truncated cone shape widened in the opposite direction to the support head.
Injection head for injecting consolidating fluid mixtures under pressure into the soil, comprising: - an outer cylindrical body defining a central longitudinal axis and having an upper inlet coaxial to said central longitudinal axis; - at least one outlet lateral nozzle placed in said outer cylindrical body and defining an injection hole extending along a respective axis substantially perpendicular to the central longitudinal axis; and - at least one conduit for connecting the upper inlet to the outlet nozzle; wherein the conduit has along its axial extension a section progressively decreasing from the zone of the upper inlet to the zone of the outlet lateral nozzle; the injection head being characterised in that the conduit and the outlet lateral nozzle have one or more stabilising ridges that are formed on the surface of the conduit and of the injection hole of the outlet lateral nozzle and that extend along their length, wherein said one or more stabilising ridges have the function of stabilising the flow of fluid mixture that flows along the conduit and the outlet lateral nozzle so as to confer a high efficiency to the injection head. - an outer cylindrical body defining a central longitudinal axis and having an upper inlet coaxial to said central longitudinal axis; - at least one outlet lateral nozzle placed in said outer cylindrical body and defining an injection hole extending along a respective axis substantially perpendicular to the central longitudinal axis; and - at least one conduit for connecting the upper inlet to the outlet nozzle;
Closing device (1, 100, 200) for manholes/traps and the like, comprising a frame (2, 102, 202) and a cover (3, 103, 203, 303) associated with said frame (2, 102, 202), wherein said device comprises mutual thrusting means (30, 31, 32; 131, 132; 230, 231, 232; 331, 332) between said cover (3, 103, 203, 303) and said frame (2, 102, 202) adapted to thrust said cover against said frame, wherein each of said thrusting means comprises an elastic tab (30, 31, 32) and a corresponding shaped area (7, 8, 9), characterized in that each of said tabs (30, 31, 32) comprises a first inclined surface and a second surface inclined with respect to said first surface, in that each of said shaped areas comprises a first upper surface and a second surface inclined with respect to said first surface, so that when said cover is lowered with respect to said frame said first surface of said tab slides over said first upper surface of said shaped area so as to elastically urge said tab into a first direction, so that when said cover is in its closed position with respect to said frame said second inclined surface of said tab comes against said second inclined surface of said shaped area, and so that said tab determines, thanks to it elasticity, a thrust action of said cover against said frame.
A seating system for a passenger transport vehicle comprising a first passenger seat and a second passenger seat, both having a head rest portion a center console configured to be positioned between the first passenger seat and the second passenger seat for providing a divider between the first and second passenger seats, and said seating system further comprising at least one food tray (18, 20) configured to be positioned horizontally in use and configured to be stowed in a vertically upright position between head rest portions of the first and second passenger seats when not in use, characterized in that the seating system comprises a food tray slide and a hinge configured to allow the food tray (18,20) to be moved from its stored position to its fully deployed position.
A sterilizable adapter for a cell culture vessel comprising • a body (14, 13) • an upper connection and/or a lid, • at least one port, • a ventilation passage, • a lower internal connection suitable for connection to a cell culture vessel and • at least one cell retention device, which holds back the cells while allowing other substances such as cell culture medium to be removed from the cell culture vessel and which is connected to at least one port, and wherein the cell culture vessel is a shake flask, the sterilizable adapter is a sterilizable adapter for a small-scale cell culture, with a cultivation volume of 1 ml to 500 ml and wherein the at least one cell retention device is a gravity cell settler and is inclined with an angle between 60° and 80° with respect to a horizontal line. • a body (14, 13) • an upper connection and/or a lid, • at least one port, • a ventilation passage, • a lower internal connection suitable for connection to a cell culture vessel and • at least one cell retention device, which holds back the cells while allowing other substances such as cell culture medium to be removed from the cell culture vessel and which is connected to at least one port,
A yarn feeder comprising a shell having a motor housed therein, which is provided with a driving shaft having a yarn-winding drum mounted thereto, comprising: - a lever hinged to said shell and slidably engaged by the yarn, - return means (42, 44) arranged to bias said lever toward a stop position in which it deviates the yarn coming from the drum with respect to its feeding direction toward a downstream machine, said lever being subject to swing in contrast to said return means (42, 44) in relation to the variations of tension of the yarn, - sensor means (46, 48) arranged to detect the movements of said lever with respect to said stop position and to generate a corresponding activation signal, - an electronic circuit which is operatively connected to said sensor means (46, 48) and is programmed to activate said motor to unwind yarn in response to said activation signal, characterized in that said return means consist of a stationary magnet (40, 42) integral with said shell and a movable magnet integral with said lever which cooperate with each other in relation of mutual magnetic repulsion. - a lever hinged to said shell and slidably engaged by the yarn, - return means (42, 44) arranged to bias said lever toward a stop position in which it deviates the yarn coming from the drum with respect to its feeding direction toward a downstream machine, said lever being subject to swing in contrast to said return means (42, 44) in relation to the variations of tension of the yarn, - sensor means (46, 48) arranged to detect the movements of said lever with respect to said stop position and to generate a corresponding activation signal, - an electronic circuit which is operatively connected to said sensor means (46, 48) and is programmed to activate said motor to unwind yarn in response to said activation signal, characterized in that said return means consist of a stationary magnet (40, 42) integral with said shell and a movable magnet integral with said lever which cooperate with each other in relation of mutual magnetic repulsion.
A medical treatment device for irradiating a subject having multiple sclerosis with light, the device comprising: (a) a light emitter producing light within at least one of a first spectral range from about 290 nm to about 320 nm and a second spectral range from about 300 nm to about 315 nm at a radiant energy density of at least 2.5 kJ/m 2; (b) a memory storing at least one treatment protocol for applying the light to a subject; and (c) a processor in communication with the memory and the light emitter, the processor programmed to: (i) retrieve the treatment protocol from the memory; (ii) selectively activate the light emitter to apply the treatment protocol to the patient, wherein the medical treatment device comprises a database, comprised in the memory, correlating a patient identifier, a treatment protocol, and a schedule for applying the treatment protocol. (a) a light emitter producing light within at least one of a first spectral range from about 290 nm to about 320 nm and a second spectral range from about 300 nm to about 315 nm at a radiant energy density of at least 2.5 kJ/m 2; (b) a memory storing at least one treatment protocol for applying the light to a subject; and (c) a processor in communication with the memory and the light emitter, the processor programmed to: (i) retrieve the treatment protocol from the memory; (ii) selectively activate the light emitter to apply the treatment protocol to the patient, (i) retrieve the treatment protocol from the memory; (ii) selectively activate the light emitter to apply the treatment protocol to the patient,