mhurhangee/ep-ind-claims huggingface dataset:
Missile for transporting a payload, comprising an optical sensor for detecting and piloting towards a target object; a flight drive unit for influencing a trajectory of the missile; and a computation unit for image processing and flight control of the missile; the optical sensor being formed stationary with respect to the missile; the optical sensor being set up to form a sensor image (FoR) having a defined number of image elements; at least only a sub-region (FoV) of the sensor image (FoR) being read out; and the sub-region of the sensor image being formed to be changeable or to be adjustable in the sensor image, characterised in that the missile is set up to evaluate jointly or to interconnect a plurality of image elements so as to increase the light sensitivity or reduce the integration times of the image elements; and the interconnection or joint evaluation of the plurality of image elements takes place when a defined target distance limit is undershot.
A mesogenic silicon compound (co)polymer represented by the general formula and having a number average molecular weight of 1,000 to 500,000, as measured by gel permeation chromatography using tetrahydrofuran as developing solvent versus polystyrene standards, wherein Ar is a mesogenic group selected from the following structures: a is a positive number of 0.5 to 1, b is a number of 0 to 0.5, where a and b represent the number proportion of the respective repeating units in the sum of all repeating units in the molecule, and a+b=1, R 1 independently are C 1 -C 8 monovalent hydrocarbon groups free of aliphatic unsaturation, and R 2 independently are hydrogen, -Si(CH 3) 3, -Si(CH 3) 2, -Si(CH 3) 2 (CH=CH 2) or -Si(CH 3) 2 (CH 2 -CH=CH 2).
An oxygen delivery system for delivering concentrated oxygen to a patient, the oxygen delivery system comprising: an oxygen concentrator having a housing; a compressor mounted inside the housing; a sieve module located within the housing and in fluid connection with the compressor, the sieve module containing a zeolite for removing nitrogen from air through a pressure swing adsorption process for creating concentrated oxygen; a power source attached to the housing; an oxygen controller device for electronically controlling the pressure swing adsorption process; and a blowing apparatus in fluid communication with the oxygen concentrator, wherein the compressor is in fluid communication with the blowing apparatus through a concentrated oxygen delivery tube; the blowing apparatus comprising: a blower housing; a blower motor mounted inside the blower housing; a blower fan or turbine connected to the blower motor; a turbine inlet venturi; a second power source attached to the blower housing; and a blower controller device for electronically controlling the blowing apparatus; and wherein the oxygen flow from the oxygen concentrator through the concentrated oxygen delivery tube adds additional energy to the blower fan or turbine via the turbine inlet venturi, which raises the turbine inlet pressure. an oxygen concentrator having a housing; a compressor mounted inside the housing; a sieve module located within the housing and in fluid connection with the compressor, the sieve module containing a zeolite for removing nitrogen from air through a pressure swing adsorption process for creating concentrated oxygen; a power source attached to the housing; an oxygen controller device for electronically controlling the pressure swing adsorption process; and a blowing apparatus in fluid communication with the oxygen concentrator, wherein the compressor is in fluid communication with the blowing apparatus through a concentrated oxygen delivery tube; the blowing apparatus comprising: a blower housing; a blower motor mounted inside the blower housing; a blower fan or turbine connected to the blower motor; a turbine inlet venturi; a second power source attached to the blower housing; and a blower controller device for electronically controlling the blowing apparatus; and wherein the oxygen flow from the oxygen concentrator through the concentrated oxygen delivery tube adds additional energy to the blower fan or turbine via the turbine inlet venturi, which raises the turbine inlet pressure. a blower housing; a blower motor mounted inside the blower housing; a blower fan or turbine connected to the blower motor; a turbine inlet venturi; a second power source attached to the blower housing; and a blower controller device for electronically controlling the blowing apparatus; and wherein the oxygen flow from the oxygen concentrator through the concentrated oxygen delivery tube adds additional energy to the blower fan or turbine via the turbine inlet venturi, which raises the turbine inlet pressure.
A method for manufacturing a spring, the method comprising: conducting a shot peening to the surface of the spring heating the shot peened spring until a temperature of the spring reaches a predetermined temperature, the predetermined temperature being higher than an upper limit of a baking finish temperature range of the paint; and spraying paint to the surface of the spring after the surface temperature of the spring falls within the baking finish temperature range of the paint, and baking the sprayed paint onto the surface of the spring, wherein i) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the baking step, or ii) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the spraying step and then is maintained constant during the baking step, and the predetermined temperature is set and the heating and cooling are performed such that a predetermined low temperature annealing is conducted on the spring during the heating step and painting step, wherein the predetermined temperature is 190 to 300 °C, and wherein a cooling rate of the spring in the painting is 0.01 to 13.00 °C /sec. conducting a shot peening to the surface of the spring heating the shot peened spring until a temperature of the spring reaches a predetermined temperature, the predetermined temperature being higher than an upper limit of a baking finish temperature range of the paint; and spraying paint to the surface of the spring after the surface temperature of the spring falls within the baking finish temperature range of the paint, and baking the sprayed paint onto the surface of the spring, wherein i) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the baking step, or ii) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the spraying step and then is maintained constant during the baking step, and i) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the baking step, or ii) the surface temperature of the spring continuously decreases from completion of the heating step until completion of the spraying step and then is maintained constant during the baking step, and the predetermined temperature is set and the heating and cooling are performed such that a predetermined low temperature annealing is conducted on the spring during the heating step and painting step, wherein the predetermined temperature is 190 to 300 °C, and wherein a cooling rate of the spring in the painting is 0.01 to 13.00 °C /sec.
An apparatus comprising: (a) a body; (b) a shaft assembly (30, 130) extending distally from the body; (c) an end effector (40, 140) located at a distal end of the shaft assembly, wherein the end effector comprises an ultrasonic blade (42, 142), wherein the ultrasonic blade is configured to vibrate at an ultrasonic frequency; and (d) a wetting member, wherein the wetting member is selectively movable between a first position and a second position, wherein the wetting member is configured to be spaced away from the ultrasonic blade in the first position, wherein the wetting member is configured to contact the ultrasonic blade in the second position and thereby apply a cooling fluid to the ultrasonic blade, wherein the wetting member is a pad (254, 274, 320, 450) comprising a foam material. (a) a body; (b) a shaft assembly (30, 130) extending distally from the body; (c) an end effector (40, 140) located at a distal end of the shaft assembly, wherein the end effector comprises an ultrasonic blade (42, 142), wherein the ultrasonic blade is configured to vibrate at an ultrasonic frequency; and (d) a wetting member, wherein the wetting member is selectively movable between a first position and a second position, wherein the wetting member is configured to be spaced away from the ultrasonic blade in the first position, wherein the wetting member is configured to contact the ultrasonic blade in the second position and thereby apply a cooling fluid to the ultrasonic blade, wherein the wetting member is a pad (254, 274, 320, 450) comprising a foam material.
A method of authenticating a user to a service provider, the method comprising: receiving an authentication request from a service provider at a terminal using a network wherein the authentication request includes one or more identifiers of acceptable identity providers; comparing, at the terminal, the one or more identifiers of acceptable identity providers with one or more supported identity provider identifiers stored in a memory of the terminal; if at least one of said one or more identifiers of acceptable identity providers matches at least one supported identity provider identifier: displaying an acceptable identity provider associated with said matching identifier to a user of the terminal; selecting one acceptable identity provider displayed to the user of the terminal; and sending the authentication request from the terminal to the selected acceptable identity provider using the network; and if none of said one or more identifiers of acceptable identity providers matches at least one supported identity provider identifier: forwarding the authentication request to an acceptable identity provider from the terminal; and if the authentication request is forwarded to said acceptable identity provider, receiving the authentication request at said acceptable identity provider. receiving an authentication request from a service provider at a terminal using a network wherein the authentication request includes one or more identifiers of acceptable identity providers; comparing, at the terminal, the one or more identifiers of acceptable identity providers with one or more supported identity provider identifiers stored in a memory of the terminal; if at least one of said one or more identifiers of acceptable identity providers matches at least one supported identity provider identifier: displaying an acceptable identity provider associated with said matching identifier to a user of the terminal; selecting one acceptable identity provider displayed to the user of the terminal; and sending the authentication request from the terminal to the selected acceptable identity provider using the network; displaying an acceptable identity provider associated with said matching identifier to a user of the terminal; selecting one acceptable identity provider displayed to the user of the terminal; and sending the authentication request from the terminal to the selected acceptable identity provider using the network; and if none of said one or more identifiers of acceptable identity providers matches at least one supported identity provider identifier: forwarding the authentication request to an acceptable identity provider from the terminal; and if the authentication request is forwarded to said acceptable identity provider, receiving the authentication request at said acceptable identity provider. forwarding the authentication request to an acceptable identity provider from the terminal; and if the authentication request is forwarded to said acceptable identity provider, receiving the authentication request at said acceptable identity provider.
Method for estimating a transmission channel in a receiver of an OFDMA signal formed by a plurality of carriers being modulated by data elements and distributed in the time-frequency domain in the form of successive symbols of said OFDMA signal, said plurality of carriers including pilot carriers, modulated by reference data elements known by receivers, said method being characterized in that it comprises: a step of receiving an OFDMA signal comprising a series of n symbols covering at least one resource block; a step of determining diagonal entries of three frequency domain channel matrices G (x); a step of determining, in the frequency domain, the non-diagonal entries for each frequency domain channel matrix G of said n symbols from said determined diagonal entries of said three frequency domain channel matrices G (x), said step of determining non diagonal entries comprises determining coefficients of said intercarrier interference terms as: G i, k p = C e mod k − i N E k + C u mod k − i N U k + 2 pT 0 C e mod k − i N U k where C e and C u are constants defined as C e n = − 1 N ⋅ 1 1 − exp j 2 πn N, C u n − 1 N ⋅ 1 1 − exp j 2 πn / N + 2 N ⋅ exp j 2 πn / N 1 − exp j 2 πn / N 2, with n ≠ 0 and: U k = 4 / 7 G k, k 7 − G k, k 0 − G k, k 4 − G k, k 0 12 N T 0 2 E k = G k, k 4 − G k, k 0 4 N T 0 2 − U k N − 1 N + 4 T 0, and G, G and G are matrices of the eighth, fifth and first symbols of said series of n symbols and p is a (p+1) th received symbol; N is a number of carriers of a symbol; T o is equal to 1 +L CP /N, where L CP is the length of the cyclic prefix. a step of receiving an OFDMA signal comprising a series of n symbols covering at least one resource block; a step of determining diagonal entries of three frequency domain channel matrices G (x); a step of determining, in the frequency domain, the non-diagonal entries for each frequency domain channel matrix G of said n symbols from said determined diagonal entries of said three frequency domain channel matrices G (x), said step of determining non diagonal entries comprises determining coefficients of said intercarrier interference terms as: G i, k p = C e mod k − i N E k + C u mod k − i N U k + 2 pT 0 C e mod k − i N U k where C e and C u are constants defined as C e n = − 1 N ⋅ 1 1 − exp j 2 πn N, C u n − 1 N ⋅ 1 1 − exp j 2 πn / N + 2 N ⋅ exp j 2 πn / N 1 − exp j 2 πn / N 2, with n ≠ 0 and: U k = 4 / 7 G k, k 7 − G k, k 0 − G k, k 4 − G k, k 0 12 N T 0 2 E k = G k, k 4 − G k, k 0 4 N T 0 2 − U k N − 1 N + 4 T 0, and G, G and G are matrices of the eighth, fifth and first symbols of said series of n symbols and p is a (p+1) th received symbol; N is a number of carriers of a symbol; T o is equal to 1 +L CP /N, where L CP is the length of the cyclic prefix.
Removable barrier including a panel configured to block at least partly an opening delimited by a frame, the removable barrier comprising a plurality of straps each connected to the panel by at least one connection element and each having first and second ends (40.1, 40.2), characterized in that the removable barrier comprises, for each strap, a first connection (46.1) configured to connect the first end (40.1) of the strap to a first edge (36.1) of the frame at least temporarily, a second connection (46.2) configured to connect the second end (40.2) of the strap to a second edge (36.2) of the frame at least temporarily, at least one folded overlength (58.1, 58.2) positioned between the connection element and at least one of the first and second ends (40.1, 40.2) of the strap, as well as at least one breakable connection (64, 66) keeping the overlength (58.1, 58.2) folded.
A nuclear power plant reactor control rod addressing device, comprising a plurality of control rods, a driving power, lifting coils LC, and a voltage detector; wherein the control rod comprises a rod position probe and a rod stroke cover; the rod position probe and the lifting coils LC are disposed on the rod stroke cover, and the rod position probe and the lifting coils LC are coaxially disposed; the driving power is respectively connected to each of the lifting coils LC; the voltage detector is respectively connected to a secondary coil of each of the rod position probes; and the driving power is configured to selectively energize one lifting coil LC, such that the one lifting coil LC generates a first induced magnetic field, and the secondary coil arranged coaxially with the one lifting coil LC generates a first induced voltage under the action of the first induced magnetic field; characterised in that the rod position probe comprises the secondary coil; and the voltage detector is configured to detect the first induced voltage to complete addressing of the control rod; wherein the addressing of the control rod is to check connectivity of a rod control channel and a rod measurement channel of the control rod to thereby determine one-to-one correspondence between the rod control channel and the rod measurement channel. the driving power is respectively connected to each of the lifting coils LC; the voltage detector is respectively connected to a secondary coil of each of the rod position probes; and the driving power is configured to selectively energize one lifting coil LC, such that the one lifting coil LC generates a first induced magnetic field, and the secondary coil arranged coaxially with the one lifting coil LC generates a first induced voltage under the action of the first induced magnetic field; characterised in that the rod position probe comprises the secondary coil; and the voltage detector is configured to detect the first induced voltage to complete addressing of the control rod; wherein the addressing of the control rod is to check connectivity of a rod control channel and a rod measurement channel of the control rod to thereby determine one-to-one correspondence between the rod control channel and the rod measurement channel.
Method for power control in a wireless communication system, comprising the steps of: obtaining received signal power of signals transmitted over a wireless signal channel; providing power control signals intended for power control of transmission over said wireless signal channel for obtaining a first targeted signal to interference level, based on obtained said received signal power; quantizing signals based on said power control signals into quantized power control signals; transmitting said quantized power control signals over a wireless control channel; and controlling a transmission power for said quantized power control signals over said wireless control channel to obtain a second targeted signal to interference level, characterised by the further step of: precoding said power control signals into precoded power control signals by a first filter, whereby said step of quantizing is performed on said precoded power control signals, said first filter being a linear filter arranged for reducing an influence of quantization noise on the use of said power control signals. obtaining received signal power of signals transmitted over a wireless signal channel; providing power control signals intended for power control of transmission over said wireless signal channel for obtaining a first targeted signal to interference level, based on obtained said received signal power; quantizing signals based on said power control signals into quantized power control signals; transmitting said quantized power control signals over a wireless control channel; and controlling a transmission power for said quantized power control signals over said wireless control channel to obtain a second targeted signal to interference level, characterised by the further step of: precoding said power control signals into precoded power control signals by a first filter, whereby said step of quantizing is performed on said precoded power control signals, said first filter being a linear filter arranged for reducing an influence of quantization noise on the use of said power control signals.
A process for preparing aromatic amines by hydrogenation of nitroaromatics in the presence of catalysts, forming a fluid, amine-comprising reaction mixture in a reactor, in which process a gas chromatogram of the reaction mixture is produced and evaluated to determine the concentration of nitro and nitroso compounds in the reaction mixture, with the result of the determination of the concentration of nitro and nitroso compounds being used for preferably automated process control or regulation of the hydrogenation, wherein samples are fed on-line automatically via a bypass to the gas chromatograph.
A method, comprising: determining, by a host radio access network, RAN, node hosting a packet data convergence protocol, PDCP, entity, a location of a primary radio link control, RLC, entity; determining, by the host RAN node, an initial state of uplink duplication of at least one secondary RLC entity at the assisting RAN node as one of RLC activated or deactivated; transmitting, by the host RAN node to an assisting RAN node, the location of the primary RLC entity (3 10A) to indicate whether the primary RLC is at the assisting RAN node; and transmitting, by the host RAN node to the assisting RAN node, the initial state of uplink duplication of the at least one secondary RLC entity at the assisting RAN node. determining, by a host radio access network, RAN, node hosting a packet data convergence protocol, PDCP, entity, a location of a primary radio link control, RLC, entity; determining, by the host RAN node, an initial state of uplink duplication of at least one secondary RLC entity at the assisting RAN node as one of RLC activated or deactivated; transmitting, by the host RAN node to an assisting RAN node, the location of the primary RLC entity (3 10A) to indicate whether the primary RLC is at the assisting RAN node; and transmitting, by the host RAN node to the assisting RAN node, the initial state of uplink duplication of the at least one secondary RLC entity at the assisting RAN node.
Condition monitoring device for a lightning protection system of a wind turbine blade, wherein the condition monitoring device is mountable to a wind turbine, comprising: • a signal generation unit configured to generate and input probe signals (S 1) into a protection unit of the lightning protection system of the wind turbine blade and/or to at least one tower conducting unit; and • a measurement unit configured to detect response signals (S 2), which are a system response of the probe signals (S 1) via a wireless coupling between the lightning protection system of the wind turbine blade and the tower conducting unit; • a control unit configured to control the signal unit and the measurement unit and to process the response signals (S 2); wherein the wireless coupling comprises a capacitive coupling (cc) between the lightning protection system of the blade and the tower conducting unit. • a signal generation unit configured to generate and input probe signals (S 1) into a protection unit of the lightning protection system of the wind turbine blade and/or to at least one tower conducting unit; and • a measurement unit configured to detect response signals (S 2), which are a system response of the probe signals (S 1) via a wireless coupling between the lightning protection system of the wind turbine blade and the tower conducting unit; • a control unit configured to control the signal unit and the measurement unit and to process the response signals (S 2);