mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an inclination of a floating wind turbine platform comprising a generator, a set of turbine blades connected to a shaft inside a turbine nacelle, the turbine nacelle being mounted onto a tower, and at least three stabilizing columns to which the tower is mounted, each of the at least three stabilizing columns having an internal volume for containing ballast, the method comprising: receiving, at a processor, position data associated with an orientation of the floating wind turbine; determining, at the processor, based on the position data, a heel angle in reference to the floating wind turbine platform; sending, from the processor, a first signal for adjusting at least one of a blade pitch of the set of turbine blades and a torque of the generator based on the determined heel angle; and sending, from the processor, a second signal for distributing the ballast among the at least three stabilizing columns, wherein the second signal for distributing the ballast is based on the determined heel angle and the first signal for adjusting the at least one of the blade pitch of the set of turbine blades and the torque of the generator. receiving, at a processor, position data associated with an orientation of the floating wind turbine; determining, at the processor, based on the position data, a heel angle in reference to the floating wind turbine platform; sending, from the processor, a first signal for adjusting at least one of a blade pitch of the set of turbine blades and a torque of the generator based on the determined heel angle; and sending, from the processor, a second signal for distributing the ballast among the at least three stabilizing columns, wherein the second signal for distributing the ballast is based on the determined heel angle and the first signal for adjusting the at least one of the blade pitch of the set of turbine blades and the torque of the generator.
A magnetic gear device having a first magnet row in which a plurality of magnetic pole pairs are arranged at substantially equal intervals in a specific direction; a second magnet row which is opposed to the first magnet row and in which a plurality of magnetic pole pairs are arranged at substantially equal intervals in the specific direction at a pitch shorter than that of the first magnet row; and a magnetic body row which is disposed between the first magnet row and the second magnet row and in which a plurality of magnetic bodies are arranged at substantially equal intervals in the specific direction, characterized in that a distance between the plurality of magnetic bodies and the second magnet row is shorter than a distance between the plurality of magnetic bodies and the first magnet row.
A 3D ceramic printer comprising: film supplying part to provide a transparent film; material supplying part to provide a printing material on the transparent film; photo-hardening part to solidify the printing material provided onto the transparent film as a designed form; at least one of blades (B1, B2) to regulate the thickness of the printing material provided on the transparent film; height regulating element to regulate the height of such blades; and film collecting part to collect the transparent film and the remaining printing material after the printing material has been hardened by the photo-hardening part. film supplying part to provide a transparent film; material supplying part to provide a printing material on the transparent film; photo-hardening part to solidify the printing material provided onto the transparent film as a designed form; at least one of blades (B1, B2) to regulate the thickness of the printing material provided on the transparent film; height regulating element to regulate the height of such blades; and film collecting part to collect the transparent film and the remaining printing material after the printing material has been hardened by the photo-hardening part.
A process for making a reactive blend comprising a silicone polymer within a thermoplastic silane-functionalized polyethylene polymer matrix, the process comprising the steps of forming a mixture of a cyclic siloxane and a thermoplastic silane functionalized polyethylene polymer, and subjecting the mixture to ring opening polymerization conditions under which the cyclic siloxane is polymerized to form a silicone polymer wherein the polymerization of the cyclic siloxane is facilitated with a phosphazene base catalyst present in an amount between 10 ppm and 5 weight percent based on the weight of the reaction mixture.
A method for controlling a connection between a device, which is an Internet-of-Things- device, and a radio bearer (2a, 2b, 2c), the method comprising at least the following steps performed by the device in the following order: a) receiving radio signals being emitted by a plurality of radio bearers (2a, 2b, 2c), wherein each of the plurality of radio bearers (2a, 2b, 2c) emits radio signals which correspond to a certain radio channel; b) determining whether a radio bearer (2a, 2b, 2c) of the plurality of radio bearers (2a, 2b, 2c) emits radio signals according to a criterion A that a frequency range of the radio signals corresponds to a predetermined frequency range based on the received radio signals, wherein the predetermined frequency range is such that a data packet is transmitted between the radio bearer (2a, 2b, 2c) and the device within a predefined time interval T1; c) connecting the device with the radio bearer (2a, 2b, 2c) if the radio signals of the radio bearer (2a, 2b, 2c) fulfill criterion A; in the case that no radio bearer (2a, 2b, 2c) emits radio signals fulfilling criterion A, determining whether a radio bearer (2a, 2b, 2c) of the plurality of radio bearers (2a, 2b, 2c) emits radio signals fulfilling a criterion B that the radio signals have the highest signal strength among the radio signals emitted by the plurality of radio bearers (2a, 2b, 2c), and connecting the device with the radio bearer (2a, 2b, 2c) if the radio bearer (2a, 2b, 2c) emits radio signals fulfilling the criterion B. a) receiving radio signals being emitted by a plurality of radio bearers (2a, 2b, 2c), wherein each of the plurality of radio bearers (2a, 2b, 2c) emits radio signals which correspond to a certain radio channel; b) determining whether a radio bearer (2a, 2b, 2c) of the plurality of radio bearers (2a, 2b, 2c) emits radio signals according to a criterion A that a frequency range of the radio signals corresponds to a predetermined frequency range based on the received radio signals, wherein the predetermined frequency range is such that a data packet is transmitted between the radio bearer (2a, 2b, 2c) and the device within a predefined time interval T1; c) connecting the device with the radio bearer (2a, 2b, 2c) if the radio signals of the radio bearer (2a, 2b, 2c) fulfill criterion A; in the case that no radio bearer (2a, 2b, 2c) emits radio signals fulfilling criterion A, determining whether a radio bearer (2a, 2b, 2c) of the plurality of radio bearers (2a, 2b, 2c) emits radio signals fulfilling a criterion B that the radio signals have the highest signal strength among the radio signals emitted by the plurality of radio bearers (2a, 2b, 2c), and connecting the device with the radio bearer (2a, 2b, 2c) if the radio bearer (2a, 2b, 2c) emits radio signals fulfilling the criterion B.
A particle sorting apparatus (1, 11, 31) comprising: a charging unit configured to apply charges to at least a portion of liquid droplets ejected from an orifice; and a charging control unit configured to adjust a charge application end time for the applied charges according to sizes of particles included in the liquid droplets; wherein the charging control unit is configured to change a charge application duration according to the sizes of the particles included in the liquid droplets. a charging unit configured to apply charges to at least a portion of liquid droplets ejected from an orifice; and a charging control unit configured to adjust a charge application end time for the applied charges according to sizes of particles included in the liquid droplets; wherein the charging control unit is configured to change a charge application duration according to the sizes of the particles included in the liquid droplets.
A method for reducing steryl glycoside in a sample, comprising: in a reaction mixture, mixing a thermostable enzyme comprising the amino acid sequence SEQ. ID NO. 17 or a variant thereof having an amino acid sequence that has at least 90% identity to SEQ. ID NO. 17, with a sample comprising steryl glycoside at a temperature above 50°C under a condition suitable for said thermostable enzyme for a suitable period of time to degrade said steryl glycoside, thereby reducing steryl glycoside in said sample to obtain a processed sample.
A method for performing, for a plurality of applications, data communication on a wireless medium accessible for a plurality of nodes used by said applications, each application being assigned to an application class of a plurality of application classes, each application class having an own priority, said method comprising of the steps of: - a node of said plurality of nodes sending a resource request for an application via a control channel dedicated to the application class said application is assigned to, said resource request being sent employing an access method available for said application class, said application involving communicating periodical and non-periodical data traffic, - taking a decision on allocating resource on said wireless medium for said application, and - performing data communication for said application via a conflict-free data channel, said data channel being separated in time from said dedicated control channel, whereby said dedicated control channel has an adaptive number of time slots, said number of time slots being determined according to the collision rate on said dedicated control channel, said data channel comprising a first and a second data subchannel separated in time, whereby said first data subchannel is placed in time before the control channels dedicated to the various application classes and said second data subchannel is placed in time after the control channels and whereby said first data subchannel is used for communicating said periodical data traffic and said second data subchannel is reserved for bursty data communication and used for communicating said non-periodical data traffic. - a node of said plurality of nodes sending a resource request for an application via a control channel dedicated to the application class said application is assigned to, said resource request being sent employing an access method available for said application class, said application involving communicating periodical and non-periodical data traffic, - taking a decision on allocating resource on said wireless medium for said application, and - performing data communication for said application via a conflict-free data channel, said data channel being separated in time from said dedicated control channel, whereby said dedicated control channel has an adaptive number of time slots, said number of time slots being determined according to the collision rate on said dedicated control channel, said data channel comprising a first and a second data subchannel separated in time, whereby said first data subchannel is placed in time before the control channels dedicated to the various application classes and said second data subchannel is placed in time after the control channels and whereby said first data subchannel is used for communicating said periodical data traffic and said second data subchannel is reserved for bursty data communication and used for communicating said non-periodical data traffic.
A method for transmitting electrical energy via an electricity grid comprising at least one generator for electrical energy, at least one network node (1100, 1100.a - 1100.f) and at least one consumer, wherein the electrical energy is transmitted in the form of at least one energy packet from the generator, via the network node to the consumer, determining a power profile TP(t) for the energy packet to be transmitted, the power profile TP(t) determining which power is to be maximally transmitted for the energy packet at a moment in time t, wherein a data packet is associated with the energy packet, which is transmitted with the energy packet in such a way that when arriving at a network node the data packet arrives before the energy packet, wherein the power profile TP(t) is transmitted as information together with the data packet, wherein the energy packet is routed autonomously and self-organised from the generator to the consumer via the network node (1100.a - 1100.f) and wherein the routing comprises the following steps: receiving the data packet, receiving the energy packet associated with the data packet, determining a receiver from the information contained in the data packet, selecting a line for the transmission of the energy packet with the aid of the information contained in the data packet, transmitting the data packet to the previously determined receiver, and activating the selected line with the aid of a controllable switch, and transmitting the energy packet with the determined power profile TP(t), which is defined by the voltage U(t), the electric current I(t) and the duration T of the packet, associated with the data packet to the same previously determined receiver by determining the power transmitted at a moment in time t on the basis of the power profile TP(t) of the energy packet to be transmitted with the aid of the controllable switch. receiving the data packet, receiving the energy packet associated with the data packet, determining a receiver from the information contained in the data packet, selecting a line for the transmission of the energy packet with the aid of the information contained in the data packet, transmitting the data packet to the previously determined receiver, and activating the selected line with the aid of a controllable switch, and transmitting the energy packet with the determined power profile TP(t), which is defined by the voltage U(t), the electric current I(t) and the duration T of the packet, associated with the data packet to the same previously determined receiver by determining the power transmitted at a moment in time t on the basis of the power profile TP(t) of the energy packet to be transmitted with the aid of the controllable switch.
A repair-welding material for die, having a composition consisting of, by mass%: 0.18%≤C≤0.35%, 0.01%≤Si≤0.20%, 1.30%≤Mn≤1.90%, 0.50%≤Cr≤1.50%, 1.50%≤Mo≤2.50%, 0.30%≤V≤1.00%, N≤0.020%, O≤0.0050%, Ni≤0.50%, Cu≤0.50%, Co≤0.10%, P≤0.030%, S≤0.050%, Al<0.050%, W<0.10%, Nb<0.10%, Ta<0.01%, Ti<0.10%, Zr<0.01%, B<0.010%, Ca<0.010%, Se<0.03%, Te<0.01%, Bi<0.01%, Pb<0.03%, Mg<0.02%, and REM<0.10%, with the balance being Fe and inevitable impurities. 0.18%≤C≤0.35%, 0.01%≤Si≤0.20%, 1.30%≤Mn≤1.90%, 0.50%≤Cr≤1.50%, 1.50%≤Mo≤2.50%, 0.30%≤V≤1.00%, N≤0.020%, O≤0.0050%, Ni≤0.50%, Cu≤0.50%, Co≤0.10%, P≤0.030%, S≤0.050%, Al<0.050%, W<0.10%, Nb<0.10%, Ta<0.01%, Ti<0.10%, Zr<0.01%, B<0.010%, Ca<0.010%, Se<0.03%, Te<0.01%, Bi<0.01%, Pb<0.03%, Mg<0.02%, and REM<0.10%,
A system for performing molecular diagnostic assays on multiple samples in parallel, the system comprising: a plurality of reaction chambers; a detector head comprising a plurality of photodetector (726b, 727b) and light source (726a, 727a) pairs for performing detections on said plurality of reaction chambers; the system being characterised in that it further comprises a processor configured to perform the following: determining or providing or accessing a detection cycle time, the detection cycle time being the amount of time required to perform a predetermined plurality of detections by said detector head on said plurality of reaction chambers; receiving or accessing a protocol step (2000B, 2000D) of a protocol, the step having a step duration associated with it, the step comprising a time at which detection is to occur during the step; and determining a first adjustment to the step such that the step duration is an integer multiple of the detection cycle time. a plurality of reaction chambers; a detector head comprising a plurality of photodetector (726b, 727b) and light source (726a, 727a) pairs for performing detections on said plurality of reaction chambers; the system being characterised in that it further comprises a processor configured to perform the following: determining or providing or accessing a detection cycle time, the detection cycle time being the amount of time required to perform a predetermined plurality of detections by said detector head on said plurality of reaction chambers; receiving or accessing a protocol step (2000B, 2000D) of a protocol, the step having a step duration associated with it, the step comprising a time at which detection is to occur during the step; and determining a first adjustment to the step such that the step duration is an integer multiple of the detection cycle time. determining or providing or accessing a detection cycle time, the detection cycle time being the amount of time required to perform a predetermined plurality of detections by said detector head on said plurality of reaction chambers; receiving or accessing a protocol step (2000B, 2000D) of a protocol, the step having a step duration associated with it, the step comprising a time at which detection is to occur during the step; and determining a first adjustment to the step such that the step duration is an integer multiple of the detection cycle time.
A polycarbonate polyol comprising structural units derived from a polyhydric alcohol and having a hydroxyl value of 20 mg KOH/g to 450 mg KOH/g, wherein the polyhydric alcohol comprises a diol and a methylol group-containing trihydric to hexahydric branched alcohol having 4 to 12 carbon atoms, the diol comprises an oxyalkylene glycol represented by the following Formula at a ratio of 70% by weight or higher, a ratio of structural units derived from the branched alcohol is 0.005% by mole to 5.0% by mole with respect to a total amount of the structural units derived from the polyhydric alcohol, and a ratio of a structural unit represented by the following Formula in the structural units derived from the branched alcohol is not higher than 50% by mole: wherein, m represents an integer of 2 to 4; R A1 represents a carbon chain optionally containing a branch having 2 to 5 carbon atoms; and m R A1 s contained in Formula are optionally the same or different, the polyhydric alcohol comprises a diol and a methylol group-containing trihydric to hexahydric branched alcohol having 4 to 12 carbon atoms, the diol comprises an oxyalkylene glycol represented by the following Formula at a ratio of 70% by weight or higher, a ratio of structural units derived from the branched alcohol is 0.005% by mole to 5.0% by mole with respect to a total amount of the structural units derived from the polyhydric alcohol, and a ratio of a structural unit represented by the following Formula in the structural units derived from the branched alcohol is not higher than 50% by mole: wherein, m represents an integer of 2 to 4; R A1 represents a carbon chain optionally containing a branch having 2 to 5 carbon atoms; and m R A1 s contained in Formula are optionally the same or different,
A nucleic acid comprising a nucleotide sequence encoding an influenza virus hemagglutinin comprising a HA1 domain, wherein said HA1 domain is modified to be free of N-linked glycosylation sites at position 154, 165, and 286, by a. modifying position 154 to encode a non-asparagine and/or modifying position 156 to encode a non-serine or non-threonine; b. modifying position 165 to encode a non-asparagine and/or modifying position 167 to encode a non-serine or non-threonine; and c. modifying position 286 to encode a non-asparagine and/or modifying position 288 to encode a non-serine or non-threonine, wherein the numbering is in accordance with strain A/Vietnam/1194/04 and wherein the nucleotide sequence is operatively linked to a regulatory region active in a plant. a. modifying position 154 to encode a non-asparagine and/or modifying position 156 to encode a non-serine or non-threonine; b. modifying position 165 to encode a non-asparagine and/or modifying position 167 to encode a non-serine or non-threonine; and c. modifying position 286 to encode a non-asparagine and/or modifying position 288 to encode a non-serine or non-threonine,
Reducing gearset comprising a mobile sun gear and a mobile ring gear and a flexible and fixed planet carrier carrying planet gears that are engaged with the sun gear that they surround and with the ring gear that surrounds them, characterized in that this planet carrier is connected to a case that surrounds it by at least two separate connections (L1 L2), with means to pretension the planet carrier between these two connections (L1 L2) in torsion.
A surgical clip applier comprising: an actuation mechanism; a body portion; a jaw blade removably disposed within the body portion and including first and second opposed jaws (192, 194) operably connected to the actuation mechanism for selective movement between a spaced apart position and an approximated position to effectuate closure of a surgical clip ("C"), the first and second opposed jaws connected to each other at a proximal end (172, 182) by a shank section; and a clip cartridge removably disposed within the body portion adjacent the jaw blade and configured to store at least one surgical clip ("C") therein, the clip cartridge having a first nub and a second nub, wherein the first nub of the clip cartridge abuts a first end of the shank section of the jaw blade, and the second nub of the clip cartridge abuts a second end of the shank section of the jaw blade, characterized in that the first nub and second nub are longitudinally spaced apart from one another and protrude in a common direction from the clip cartridge, the second nub of the clip cartridge being disposed between the proximal ends (172, 182) of the first and second opposed jaws (192, 194). an actuation mechanism; a body portion; a jaw blade removably disposed within the body portion and including first and second opposed jaws (192, 194) operably connected to the actuation mechanism for selective movement between a spaced apart position and an approximated position to effectuate closure of a surgical clip ("C"), the first and second opposed jaws connected to each other at a proximal end (172, 182) by a shank section; and a clip cartridge removably disposed within the body portion adjacent the jaw blade and configured to store at least one surgical clip ("C") therein, the clip cartridge having a first nub and a second nub, wherein the first nub of the clip cartridge abuts a first end of the shank section of the jaw blade, and the second nub of the clip cartridge abuts a second end of the shank section of the jaw blade, characterized in that the first nub and second nub are longitudinally spaced apart from one another and protrude in a common direction from the clip cartridge, the second nub of the clip cartridge being disposed between the proximal ends (172, 182) of the first and second opposed jaws (192, 194).