mhurhangee/ep-ind-claims huggingface dataset:
An optical modulator circuit, comprising: a first electrode and a second electrode; a first p-n junction segment comprising a first modulating p-n junction connected in series with a first non-modulating device at a first bias voltage connection, the first non-modulating device comprising a first capacitance that is substantially larger than a capacitance of the first modulating p-n junction, wherein the first modulating p-n junction and the first non-modulating device are connected to the first electrode and the second electrode, respectively; a second p-n junction segment comprising a second non-modulating device connected in series with a second modulating p-n junction at a second bias voltage connection, the second non-modulating device comprising a second capacitance that is substantially larger than a capacitance of the second modulating p-n junction, wherein the second non-modulating device and the second modulating p-n junction are connected to the first electrode and the second electrode, respectively; and a first optical waveguide and a second optical waveguide that superimpose the first modulating p-n junction and the second modulating p-n junction, respectively, wherein the first modulating p-n junction and the second modulating p-n junction are configured to modulate a refractive index of the first optical waveguide and the second optical waveguide, respectively, wherein the first electrode, the second electrode, the first optical waveguide, and the second optical waveguide are substantially parallel to each other along a direction of optical signal propagation. a first electrode and a second electrode; a first p-n junction segment comprising a first modulating p-n junction connected in series with a first non-modulating device at a first bias voltage connection, the first non-modulating device comprising a first capacitance that is substantially larger than a capacitance of the first modulating p-n junction, wherein the first modulating p-n junction and the first non-modulating device are connected to the first electrode and the second electrode, respectively; a second p-n junction segment comprising a second non-modulating device connected in series with a second modulating p-n junction at a second bias voltage connection, the second non-modulating device comprising a second capacitance that is substantially larger than a capacitance of the second modulating p-n junction, wherein the second non-modulating device and the second modulating p-n junction are connected to the first electrode and the second electrode, respectively; and a first optical waveguide and a second optical waveguide that superimpose the first modulating p-n junction and the second modulating p-n junction, respectively, wherein the first modulating p-n junction and the second modulating p-n junction are configured to modulate a refractive index of the first optical waveguide and the second optical waveguide, respectively, wherein the first electrode, the second electrode, the first optical waveguide, and the second optical waveguide are substantially parallel to each other along a direction of optical signal propagation.
A robotic system comprising: a robotic element having an electrically rechargeable power source; a propulsion unit and a control unit for autonomous propelled movement of the robotic element over an area; a circuit loop comprising a plurality of wire segments (102, 103, 104), including one or more boundary wire segments defining the boundary of an area within which said robotic element is permitted to move; a charging station with which the robotic element can dock for charging of said power source; and a base station having first connections with the charging station for the supply of charging power and second connections with the circuit loop (102, 103, 104) for the supply of a positioning voltage signal to said boundary wire segments; wherein the base station comprises at least one user-actuable control; and characterised in that: the base station is configured to provide a "manual return to charging station" control signal in response to appropriate user actuation of said at least one control with said boundary wire segments transmitting a wireless control signal corresponding to said "manual return to charging station" control signal and with the robotic element being configured such that, during autonomous movement over said area and on receipt of said "manual return to charging station" wireless control signal, it ceases autonomous movement and moves directly to said charging station.
Material, forming supramolecular structures below its transition temperature, characterised in that the material contains at least one C=O and/or C=S group and at least one N-H, O-H and/or S-H group and wherein the material has the structure A(-X-B)n Wherein A is a cyclic, aromatic and/or aliphatic group and has a molecular weight (Mn) of less than 1000, n being a number of 2 to 4, -X-B is, if n is 2, the same or different, and if n is 3 or 4, the same, partly the same or different and has one of the structure to -NH-C -Y-B -NH-C -NR-B With Y being an Oxygen and/or Sulfur atom, B being an organic group with at least one heteroatom, where the heteroatom is bound to at least two carbon atoms when B is linear or cyclic, and where the heteroatom is bound to at least one carbon atom when b is branched, B having a molecular weight (Mn) of less than 500, and R being a Hydrogen atom, a cyclic aromatic and/or aliphatic group or another B group which is the same or different.
A method for use at a user equipment, UE, the method comprising: determining that a new radio, NR, radio access technology, RAT, is requested for a vehicle-to-everything, V2X, communication of data, wherein the determining is based, at least in part, on service information associated with data to be transmitted; determining an extended Tx Profile for the V2X communication; if the V2X communication comprises either a unicast communication or a groupcast communication and the extended Tx Profile indicates a bearer quality of service, QoS, Model, further establishing a verified Tx Profile via a link management communication process with at least one receiving device, and providing the at least a portion of the verified Tx Profile to an access stratum, AS, layer of a communication protocol stack as part of the extended Tx Profile for use in transmitting at least a portion of the data via the NR RAT, wherein determining the extended Tx Profile for the V2X communication comprises obtaining at least a portion of the verified Tx Profile at a V2X layer of the communication protocol stack from another layer of the communication protocol stack following the link management communication process; and transmitting at least the portion of the data via the NR RAT based on the extended Tx Profile. determining that a new radio, NR, radio access technology, RAT, is requested for a vehicle-to-everything, V2X, communication of data, wherein the determining is based, at least in part, on service information associated with data to be transmitted; determining an extended Tx Profile for the V2X communication; if the V2X communication comprises either a unicast communication or a groupcast communication and the extended Tx Profile indicates a bearer quality of service, QoS, Model, further establishing a verified Tx Profile via a link management communication process with at least one receiving device, and providing the at least a portion of the verified Tx Profile to an access stratum, AS, layer of a communication protocol stack as part of the extended Tx Profile for use in transmitting at least a portion of the data via the NR RAT, wherein determining the extended Tx Profile for the V2X communication comprises obtaining at least a portion of the verified Tx Profile at a V2X layer of the communication protocol stack from another layer of the communication protocol stack following the link management communication process; and transmitting at least the portion of the data via the NR RAT based on the extended Tx Profile.
A vehicle comprising a frame; a tub supported by the frame, the tub configured to minimize water intrusion into the vehicle; ground engaging members (12, 14) supporting the frame; an operator area supported by the frame; an engine compartment rearward of the operator area, the engine compartment enclosed within the tub; and a first radiator coupled to an engine to cool the engine, wherein the first radiator is positioned rearward of the operator area on a first lateral side of the vehicle; wherein a second radiator is positioned rearward of the operator area on a second lateral side of the vehicle; wherein the first and second radiators (130, 140) are fluidly coupled together and to the engine for cooling the engine, the vehicle further comprising a third radiator positioned in front of one of the first or second radiators (130, 134), and a first fan and a second fan positioned adjacent a respective one of the first and second radiators; wherein the first and second radiators (130, 34) are also above a top of the engine. a frame; a tub supported by the frame, the tub configured to minimize water intrusion into the vehicle; ground engaging members (12, 14) supporting the frame; an operator area supported by the frame; an engine compartment rearward of the operator area, the engine compartment enclosed within the tub; and a first radiator coupled to an engine to cool the engine, wherein the first radiator is positioned rearward of the operator area on a first lateral side of the vehicle; wherein a second radiator is positioned rearward of the operator area on a second lateral side of the vehicle; wherein the first and second radiators (130, 140) are fluidly coupled together and to the engine for cooling the engine, the vehicle further comprising a third radiator positioned in front of one of the first or second radiators (130, 134), and a first fan and a second fan positioned adjacent a respective one of the first and second radiators; wherein the first and second radiators (130, 34) are also above a top of the engine.
Method to activate a function of a vehicle, to which a key formed for wireless data exchange with this is allocated, with the aid of a telecommunication device distinct from the key, wherein the telecommunication device attempts, according to a predetermined process, to communicate with the key and herein to obtain a piece of information, and wherein the function of the vehicle is only activated with the aid of the telecommunication device via a mobile network by remote activation if the thus obtained piece of information corresponds to a piece of comparative information, characterised in that it is determined by means of the piece of comparative information whether the key is the last used key with which the vehicle was last moved.
Transport trailer with a chassis having at least one floor platform on which at least one inner carriage which is to be transported can be placed, characterized in that the floor platform has a main plate made of a porous metallic material and a sheet metal (42, 44) connected to the main plate.
A compound according to Formula wherein at least one atom is radioactive, or a pharmaceutically acceptable salt or a solvate thereof, for use in imaging or quantifying the mGlu2 and 3 receptors.
A frequency calibration method comprising: generating an input signal (230; 332; 410) based on an external RF signal (210; 310; 1310) and an oscillation signal (220; 320; 1330) generated by an oscillator; extracting, from the input signal (230; 332; 410), a frequency difference signal (920; 1340) having a frequency corresponding to a frequency difference between an external frequency of the external RF signal (210; 310; 1310) and an oscillation frequency of the oscillation signal (220; 320; 1330); generating a signal having the oscillation frequency (411; 1320) by removing an envelope of the input signal (230; 332; 410); generating a division signal (413; 910; 1350) by dividing by a division ratio the signal having the oscillation frequency (411; 1320); tuning the oscillation frequency of the oscillation signal (220; 320; 1330) of the oscillator to a target frequency based on a result of comparing the frequency of the frequency difference signal (920; 1340) to a frequency of the division signal (413; 910; 1350); detecting a signal strength of the frequency difference signal; continuing a frequency calibration in response to the signal strength of the frequency difference signal exceeding a threshold strength (V TH); and terminating the frequency calibration in response to the signal strength of the frequency difference signal being less than or equal to the threshold strength (V TH). generating an input signal (230; 332; 410) based on an external RF signal (210; 310; 1310) and an oscillation signal (220; 320; 1330) generated by an oscillator; extracting, from the input signal (230; 332; 410), a frequency difference signal (920; 1340) having a frequency corresponding to a frequency difference between an external frequency of the external RF signal (210; 310; 1310) and an oscillation frequency of the oscillation signal (220; 320; 1330); generating a signal having the oscillation frequency (411; 1320) by removing an envelope of the input signal (230; 332; 410); generating a division signal (413; 910; 1350) by dividing by a division ratio the signal having the oscillation frequency (411; 1320); tuning the oscillation frequency of the oscillation signal (220; 320; 1330) of the oscillator to a target frequency based on a result of comparing the frequency of the frequency difference signal (920; 1340) to a frequency of the division signal (413; 910; 1350); detecting a signal strength of the frequency difference signal; continuing a frequency calibration in response to the signal strength of the frequency difference signal exceeding a threshold strength (V TH); and terminating the frequency calibration in response to the signal strength of the frequency difference signal being less than or equal to the threshold strength (V TH).
Refrigeration appliance for enhancing an ageing process for meat, having a storage area for refrigerated goods, wherein the refrigeration appliance comprises a temperature setting facility for setting a temperature in the storage area between -0.5 and 4°C, an air humidity setting facility with a humidity sensor for setting a relative air humidity between 50% and 85% in the storage area, and a ventilation facility for generating an air flow with an air speed between 0.5 m/s and 2.5 m/s in the storage area, wherein the refrigeration appliance has a control facility for controlling the temperature, the air speed and the relative air humidity as a function of the refrigerated goods, characterised in that the storage climate parameters are maintained in the storage area for an ageing or post ageing process: a target temperature between 0.5°C - 1.5°C, a target area for the relative air humidity between 75% to 85%, and a target area for an air speed between 0.5 m/s and 2.5 m/s. a target temperature between 0.5°C - 1.5°C, a target area for the relative air humidity between 75% to 85%, and a target area for an air speed between 0.5 m/s and 2.5 m/s.
A high-strength hot rolled steel sheet with excellent bendability wherein the bending radius is not more than (3.0 × sheet thickness), low-temperature toughness vE -40 of not less than 30 J and a yield strength YS of not less than 960 MPa, having a chemical composition consisting of, in mass%, C: 0.08 to 0.25%, Si: 0.01 to 1.0%, Mn: 0.8 to 1.3%, P: not more than 0.025%, S: not more than 0.005%, Al: 0.005 to 0.10%, N: not more than 0.005%, O: not more than 0.005%, Mg: not more than 0.003%, Sn: not more than 0.005%, optionally B: 0.0001 to 0.0050%, optionally Ca: 0.0005 to 0.005%, and optionally at least one selected from the group consisting of Nb: 0.001 to 0.05%, Ti: 0.001 to 0.05%, Mo: 0.001 to 1.0%, Cr: 0.01 to 1.0%, V: 0.001 to 0.10%, Cu: 0.01 to 0.50% and Ni: 0.01 to 0.50%, the balance being Fe and inevitable impurities, and a microstructure having a bainite phase and/or a tempered martensite phase as a main phase, wherein the main phase has a volume fraction of not less than 90%, characterized in that the average grain diameter of prior austenite grains is not more than 20 μm as measured with respect to a cross section parallel to the rolling direction and not more than 15 μm as measured with respect to a cross section perpendicular to the rolling direction.
An electrolytic cell for producing ozone, the cell comprising: a first electrode including a free-standing diamond material; a second electrode spaced from the first electrode; a proton exchange membrane separating the first electrode and the second electrode, the proton exchange membrane being between the first electrode and the second electrode a cylindrical housing; a first semi-circular frame member; and a second semi-circular frame member, wherein the first electrode, the second electrode, and the membrane are sandwiched between the first semi-circular frame member and the second semi-circular frame member; and first electrode, the second electrode, and the membrane, the first semi-circular frame member and the second semi-circular frame member are within the cylindrical housing. a first electrode including a free-standing diamond material; a second electrode spaced from the first electrode; a proton exchange membrane separating the first electrode and the second electrode, the proton exchange membrane being between the first electrode and the second electrode a cylindrical housing; a first semi-circular frame member; and a second semi-circular frame member, wherein the first electrode, the second electrode, and the membrane are sandwiched between the first semi-circular frame member and the second semi-circular frame member; and first electrode, the second electrode, and the membrane, the first semi-circular frame member and the second semi-circular frame member are within the cylindrical housing.
A computer-implemented method for verifying that safety glasses (102, 202) are present and are properly worn, comprising: capturing an RGB image of an individual; capturing an infrared image of the individual; and detecting a location of an eye (104, 204) of the individual in the RGB image; detecting a location of safety glasses (102, 202) in the IR image, wherein the safety glasses (102, 202) include a T-shaped material corresponding to a center of the frame of the safety glasses (102, 202) and the T-shaped material is detected in the IR image; and verifying that the detected location of the eye (104, 204) of the individual in the RGB image corresponds to either side of the vertical section of the "T" to indicate that safety glasses (102, 202) are being worn and are properly positioned. capturing an RGB image of an individual; capturing an infrared image of the individual; and detecting a location of an eye (104, 204) of the individual in the RGB image; detecting a location of safety glasses (102, 202) in the IR image, wherein the safety glasses (102, 202) include a T-shaped material corresponding to a center of the frame of the safety glasses (102, 202) and the T-shaped material is detected in the IR image; and verifying that the detected location of the eye (104, 204) of the individual in the RGB image corresponds to either side of the vertical section of the "T" to indicate that safety glasses (102, 202) are being worn and are properly positioned. detecting a location of an eye (104, 204) of the individual in the RGB image; detecting a location of safety glasses (102, 202) in the IR image, wherein the safety glasses (102, 202) include a T-shaped material corresponding to a center of the frame of the safety glasses (102, 202) and the T-shaped material is detected in the IR image; and the safety glasses (102, 202) include a T-shaped material corresponding to a center of the frame of the safety glasses (102, 202) and the T-shaped material is detected in the IR image; and verifying that the detected location of the eye (104, 204) of the individual in the RGB image corresponds to either side of the vertical section of the "T" to indicate that safety glasses (102, 202) are being worn and are properly positioned.
A method for user equipment, UE (UE 1), cooperation, the method comprising: receiving, at a first UE (UE 1), a transport block intended for a second UE (UE 2), the transport block comprising a plurality of code block groups, each code block group comprising a plurality of code blocks; and characterised by transmitting, from the first UE (UE 1) to the second UE (UE 2), at least one code block based on at least one code block group of the transport block intended for the second UE (UE 2) from a partial subset of all code blocks or code block groups of the transport block that the first UE (UE 1) was able to successfully decode. receiving, at a first UE (UE 1), a transport block intended for a second UE (UE 2), the transport block comprising a plurality of code block groups, each code block group comprising a plurality of code blocks; and characterised by transmitting, from the first UE (UE 1) to the second UE (UE 2), at least one code block based on at least one code block group of the transport block intended for the second UE (UE 2) from a partial subset of all code blocks or code block groups of the transport block that the first UE (UE 1) was able to successfully decode.
A treatment apparatus comprising a catheter that includes a delivery shaft, the delivery shaft extending in an axial direction and configured to hold, in a tip end region, a stent graft having a reduced diameter, the delivery shaft including a tube-shaped member that includes one or a plurality of lumens provided in the axial direction, and a plurality of core members (112, 112a, 112b, 112c, 112d) that extend in the axial direction inside the tube-shaped member at least in the tip end region, and have plastic deformability, the plurality of core members (112, 112a, 112b, 112c, 112d) being disposed substantially isotropically in an outer circumferential direction of the lumen inside the tube-shaped member; wherein the delivery shaft further includes a covering layer that covers the lumen, and the covering layer and at least one of the plurality of core members (112, 112a, 112b, 112c, 112d) are in contact with each other. a catheter that includes a delivery shaft, the delivery shaft extending in an axial direction and configured to hold, in a tip end region, a stent graft having a reduced diameter, the delivery shaft including a tube-shaped member that includes one or a plurality of lumens provided in the axial direction, and a plurality of core members (112, 112a, 112b, 112c, 112d) that extend in the axial direction inside the tube-shaped member at least in the tip end region, and have plastic deformability, the plurality of core members (112, 112a, 112b, 112c, 112d) being disposed substantially isotropically in an outer circumferential direction of the lumen inside the tube-shaped member; wherein a tube-shaped member that includes one or a plurality of lumens provided in the axial direction, and a plurality of core members (112, 112a, 112b, 112c, 112d) that extend in the axial direction inside the tube-shaped member at least in the tip end region, and have plastic deformability, the plurality of core members (112, 112a, 112b, 112c, 112d) being disposed substantially isotropically in an outer circumferential direction of the lumen inside the tube-shaped member; wherein the delivery shaft further includes a covering layer that covers the lumen, and the covering layer and at least one of the plurality of core members (112, 112a, 112b, 112c, 112d) are in contact with each other.