mhurhangee/ep-ind-claims huggingface dataset:
SSL lamp comprising: three or more elongated light emitting structures (102, 104, 106, 108), wherein a respective first end (102a, 104a, 106a, 108a) of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged such that they define a first polygon, and wherein a portion of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged in vicinity of each other such that the three or more elongated light emitting structures (102, 104, 106, 108) crosses each other at a smallest angle (α, α') of at least 30 degrees, thereby forming a common neck, characterized in that a respective second end (102b, 104b, 106b, 108b) of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged such that they define a second polygon, the first and second polygons (150, 152) being rotated relative each other. three or more elongated light emitting structures (102, 104, 106, 108), wherein a respective first end (102a, 104a, 106a, 108a) of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged such that they define a first polygon, and wherein a portion of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged in vicinity of each other such that the three or more elongated light emitting structures (102, 104, 106, 108) crosses each other at a smallest angle (α, α') of at least 30 degrees, thereby forming a common neck, characterized in that a respective second end (102b, 104b, 106b, 108b) of each of the three or more elongated light emitting structures (102, 104, 106, 108) are arranged such that they define a second polygon, the first and second polygons (150, 152) being rotated relative each other.
A living marine resource production method in which a living marine resource is produced with phytoplankton as a basic producer of a food chain, wherein the living marine resource production method comprises: drawing deep water that exists in a deep region of the sea to a surface region of the sea with an upwelling pipe; and culturing the phytoplankton in the upwelling pipe, wherein at least a part of the upwelling pipe is formed by a light-transmitting pipe having a light-transmitting property, and wherein, in the phytoplankton culturation, when sunlight is irradiated to an upper end surface of the light-transmitting pipe, the irradiated sunlight is guided toward a lower end surface of the light-transmitting pipe. drawing deep water that exists in a deep region of the sea to a surface region of the sea with an upwelling pipe; and culturing the phytoplankton in the upwelling pipe, wherein at least a part of the upwelling pipe is formed by a light-transmitting pipe having a light-transmitting property, and wherein, in the phytoplankton culturation, when sunlight is irradiated to an upper end surface of the light-transmitting pipe, the irradiated sunlight is guided toward a lower end surface of the light-transmitting pipe.
A consolidation device (100,200) comprising: a dispensing assembly configured to dispense a composite precursor material onto a surface of a mould; and a first nozzle assembly configured to direct a fluid stream onto the free surface of the dispensed composite precursor material, to thereby consolidate the dispensed composite precursor material onto the surface of the mould, characterised in that a volumetric flow rate of the fluid stream exiting the first nozzle assembly may be varied so as to provide a uniform compaction force over the surface of the mould, as the dispensing assembly dispenses the composite precursor material, and the consolidation device (100,200) further comprises a second nozzle assembly configured to create a partial vacuum in a region between the composite precursor material and the surface of the mould, as the composite precursor material is dispensed from the dispensing assembly. a dispensing assembly configured to dispense a composite precursor material onto a surface of a mould; and a first nozzle assembly configured to direct a fluid stream onto the free surface of the dispensed composite precursor material, to thereby consolidate the dispensed composite precursor material onto the surface of the mould, characterised in that a volumetric flow rate of the fluid stream exiting the first nozzle assembly may be varied so as to provide a uniform compaction force over the surface of the mould, as the dispensing assembly dispenses the composite precursor material, and the consolidation device (100,200) further comprises a second nozzle assembly configured to create a partial vacuum in a region between the composite precursor material and the surface of the mould, as the composite precursor material is dispensed from the dispensing assembly.
A method for purifying or isolating protein from a sample comprising cells and one or more humic substance contaminants, wherein the sample is a soil sample, the method comprising the steps of: (a) contacting the soil sample with a first solution comprising at least 0.1 vol% non-ionic detergent, at least 10mM Tris buffer, 10 to 100 mM salt wherein the first solution comprises one or more inorganic salts, and at least 1 vol% polyol, wherein the one or more inorganic salts in the first solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts; and (b) contacting the resulting mixture of step (a) with a second solution comprising 1 to 6M inorganic salt, wherein the inorganic salt in the second solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts, and wherein the total salt concentration in the mixture after the addition of the second solution is from 0.2 to 1M; and (c) recovering protein from the mixture. (a) contacting the soil sample with a first solution comprising at least 0.1 vol% non-ionic detergent, at least 10mM Tris buffer, 10 to 100 mM salt wherein the first solution comprises one or more inorganic salts, and at least 1 vol% polyol, wherein the one or more inorganic salts in the first solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts; and (b) contacting the resulting mixture of step (a) with a second solution comprising 1 to 6M inorganic salt, wherein the inorganic salt in the second solution is selected from sodium salts, potassium salts, calcium salts, magnesium salts, chloride salts, bicarbonate salts and sulfate salts, and wherein the total salt concentration in the mixture after the addition of the second solution is from 0.2 to 1M; and (c) recovering protein from the mixture.
A portable electronic device for controlling a cargo handling system, the portable electronic device, comprising: a display; a camera; a processor in electronic communication with the camera and the display; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the processor to perform operations comprising: identifying, by the processor, an optical label scanned by the camera; and characterized by determining, by the processor, a direction in which the portable electronic device is facing based on the viewing angle of the camera relative to the optical label; and orienting, by the processor, a location of a cargo system component on the display to coincide with the direction in which the portable electronic device is facing. a display; a camera; a processor in electronic communication with the camera and the display; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the processor to perform operations comprising: identifying, by the processor, an optical label scanned by the camera; and characterized by determining, by the processor, a direction in which the portable electronic device is facing based on the viewing angle of the camera relative to the optical label; and orienting, by the processor, a location of a cargo system component on the display to coincide with the direction in which the portable electronic device is facing. identifying, by the processor, an optical label scanned by the camera; and characterized by determining, by the processor, a direction in which the portable electronic device is facing based on the viewing angle of the camera relative to the optical label; and orienting, by the processor, a location of a cargo system component on the display to coincide with the direction in which the portable electronic device is facing.
A stability control device comprising: a steering unit for receiving steering input from a driver; a turning part for turning a turnable wheel (5FL, 5FR), the turning part being mechanically separated from the steering unit; turning control means for controlling a turning amount of the turning part in accordance with a steering amount of the steering unit; steering reaction force control means for controlling a steering reaction force imparted to the steering unit in accordance with a turning state of the turning part; yaw angle detection means for detecting a yaw angle, which is an angle formed by a white line and a traveling direction of a host vehicle; yaw-angle-suppressing turning amount calculation means for computing a turning amount for suppressing the detected yaw angle; lane-center-returning turning amount calculation means for computing a turning amount for returning the host vehicle to a center of a lane when the host vehicle has departed from the center of the lane; and stability control means for controlling the turning part based on the yaw-angle-suppressing turning amount and the lane-center-returning turning amount, characterized in that the steering reaction force control means is configured to limit the steering reaction force corresponding to the yaw-angle-suppressing turning amount to a predetermined value. a steering unit for receiving steering input from a driver; a turning part for turning a turnable wheel (5FL, 5FR), the turning part being mechanically separated from the steering unit; turning control means for controlling a turning amount of the turning part in accordance with a steering amount of the steering unit; steering reaction force control means for controlling a steering reaction force imparted to the steering unit in accordance with a turning state of the turning part; yaw angle detection means for detecting a yaw angle, which is an angle formed by a white line and a traveling direction of a host vehicle; yaw-angle-suppressing turning amount calculation means for computing a turning amount for suppressing the detected yaw angle; lane-center-returning turning amount calculation means for computing a turning amount for returning the host vehicle to a center of a lane when the host vehicle has departed from the center of the lane; and stability control means for controlling the turning part based on the yaw-angle-suppressing turning amount and the lane-center-returning turning amount, characterized in that the steering reaction force control means is configured to limit the steering reaction force corresponding to the yaw-angle-suppressing turning amount to a predetermined value.
A tool measuring apparatus for measuring a height (H2, H1) of a punch body and a die, the apparatus comprising: a measurement device that measures a distance from a punch reference position, which is preset, to an end surface of the punch body, and a distance from a die reference position, which is preset, to an end surface of the die, wherein the punch reference position and the die reference position are placed independently from each other, and the apparatus further comprises a die support member on which the die is put, and a punch body support member (13A, 13B) that supports the punch body, wherein the die reference position is provided on the die support member, the punch reference position is provided on the punch body support member (13A, 13B), and a holder (17A, 17B) that holds the punch body is further formed on the die support member. a measurement device that measures a distance from a punch reference position, which is preset, to an end surface of the punch body, and a distance from a die reference position, which is preset, to an end surface of the die, wherein the punch reference position and the die reference position are placed independently from each other, and the apparatus further comprises a die support member on which the die is put, and a punch body support member (13A, 13B) that supports the punch body, wherein the die reference position is provided on the die support member, the punch reference position is provided on the punch body support member (13A, 13B), and a holder (17A, 17B) that holds the punch body is further formed on the die support member.
Composition for an abradable seal for a turbomachine, in particular in powder form, said seal being able to crumble in the event of contact with a rotor of said turbomachine, the composition comprising: - a metallic phase with a mass majority of aluminium, - a second phase comprising a mineral material and/or an organic material; characterised in that the metal phase further comprises chromium and nickel, the metal phase comprising more chromium than nickel in mass. - a metallic phase with a mass majority of aluminium, - a second phase comprising a mineral material and/or an organic material;
An apparatus for wireless communication, comprising: means for receiving power information from a Node B; means for determining a power per channelization code for a designated number of channelization codes based on the power information; means for determining at least one channel quality indicator, CQI, index for at least one transport block based on the power per channelization code; and means for sending the at least one CQI index to the Node B; characterised in that the means for determining the power per channelization code comprises means for obtaining a power offset from the power information, means for determining received power of a data channel based on the power offset and received power of a pilot channel, and means for determining the power per channelization code based on the received power of the data channel and the designated number of channelization codes. means for receiving power information from a Node B; means for determining a power per channelization code for a designated number of channelization codes based on the power information; means for determining at least one channel quality indicator, CQI, index for at least one transport block based on the power per channelization code; and means for sending the at least one CQI index to the Node B; characterised in that the means for determining the power per channelization code comprises means for obtaining a power offset from the power information, means for determining received power of a data channel based on the power offset and received power of a pilot channel, and means for determining the power per channelization code based on the received power of the data channel and the designated number of channelization codes.
Method for manufacturing an electrical switching contact comprising a contact carrier and a contact facing with a contact material, the contact material being connected to the contact carrier by way of a sinterable layer between the contact material and the contact carrier, characterized in that the sintering process is carried out in a temperature range from 250 to 300°C.
Water-conducting household appliance, in particular a dishwasher, with a wash container for holding items being washed, a first container and a second container for holding water, wherein a thermal insulation means is arranged between the first container and the wash container, the second container is arranged in thermal contact with the wash container and a means for decanting the water from the first container into the second container is provided to dry the items being washed, characterised in that the means for decanting the water from the first container into the second container is configured as a valve, pump and/or siphon pump.
Optoelectronic semiconductor component having a light source, a housing and electrical connections, wherein the light source has a chip which emits primary radiation in the UV or blue region with a peak wavelength in particular in the region of 300 to 490 nm, wherein the primary radiation is partially or completely converted into radiation of a different wavelength by a previously applied conversion element, characterized in that the conversion element has a translucent or transparent substrate, which is manufactured from ceramic or glass ceramic, wherein a glass matrix is applied to the substrate, with a phosphor being embedded in said glass matrix, wherein the substrate has pores, into which the glass matrix is introduced at least partially.
A solution for use in reducing or inhibiting blood flow in a blood vessel of a subject, wherein the solution comprises water, at least one polycation, at least one polyanion, and a concentration of monovalent ions in water sufficient to prevent association of the polycation and polyanion, wherein the monovalent ions are selected from sodium chloride, potassium chloride and their mixture; characterised in that the concentration of the monovalent ions in the solution is greater than the concentration of the monovalent ions in the blood vessel of the subject, the total positive/negative charge ratio of the polycation to the polyanion is from 4 to 0.25, the concentration of the monovalent ions in the solution is from 0.5 M to 2.0 M, and the solution has a pH of 7 to 7.5; and whereupon introduction of the solution into the vessel the solution is converted to a solid in situ within the vessel. characterised in that the concentration of the monovalent ions in the solution is greater than the concentration of the monovalent ions in the blood vessel of the subject, the total positive/negative charge ratio of the polycation to the polyanion is from 4 to 0.25, the concentration of the monovalent ions in the solution is from 0.5 M to 2.0 M, and the solution has a pH of 7 to 7.5; and whereupon introduction of the solution into the vessel the solution is converted to a solid in situ within the vessel.
A device for generating RF power for an electrosurgical instrument, said device comprising: a controller programmed to generate an electrical signal having an oscillating waveform of between 200 kHz and 4 MHz and to modulate said oscillating waveform between a plurality of ON and OFF states (314, 316) at a frequency of between 37 Hz and 75 Hz to create discrete packets of the waveform in the plurality of the ON states; an amplifier in communication with said electrical waveform that amplifies said waveform to create an output electrical signal; and an electrosurgical connector configured to receive an electrosurgical instrument (58, 68) and to pass said output electrical signal to said electrosurgical instrument (58, 68); wherein the oscillating waveform has a frequency in the RF spectrum and wherein the plurality of ON and OFF states (314, 316) creating the discrete packets has a frequency which is less than the frequency of the oscillating waveform; characterized in that the controller is programmed to modulate said oscillating waveform between the plurality of ON and OFF states (314, 316) at a duty cycle of between 90% and 98% to create the discrete packets; the controller is configured to modulate each of the discrete packets between SUB ON and SUB OFF states (414, 416) to form a plurality of at least a first level of sub-discrete packets of the waveform; and the plurality of SUB ON and SUB OFF states creating the sub-discrete packets has a frequency which is less than the frequency of the oscillating waveform and greater than the frequency of the discrete packets. a controller programmed to generate an electrical signal having an oscillating waveform of between 200 kHz and 4 MHz and to modulate said oscillating waveform between a plurality of ON and OFF states (314, 316) at a frequency of between 37 Hz and 75 Hz to create discrete packets of the waveform in the plurality of the ON states; an amplifier in communication with said electrical waveform that amplifies said waveform to create an output electrical signal; and an electrosurgical connector configured to receive an electrosurgical instrument (58, 68) and to pass said output electrical signal to said electrosurgical instrument (58, 68); wherein the oscillating waveform has a frequency in the RF spectrum and wherein the plurality of ON and OFF states (314, 316) creating the discrete packets has a frequency which is less than the frequency of the oscillating waveform; characterized in that the controller is programmed to modulate said oscillating waveform between the plurality of ON and OFF states (314, 316) at a duty cycle of between 90% and 98% to create the discrete packets; the controller is configured to modulate each of the discrete packets between SUB ON and SUB OFF states (414, 416) to form a plurality of at least a first level of sub-discrete packets of the waveform; and the plurality of SUB ON and SUB OFF states creating the sub-discrete packets has a frequency which is less than the frequency of the oscillating waveform and greater than the frequency of the discrete packets.
An image capturing function control system that controls an image capturing function of an actual machine image capturing device, the actual machine image capturing device being loaded on a working machine and configured to acquire a captured image to be outputted to an output interface, a movement of the working machine being controlled according to an operation through an input interface, the system comprising: a first image capturing function control element configured to control a zoom magnification to be a specified magnification or lower by a zoom function as the image capturing function of the actual machine image capturing device in a first state which is a state where the working machine can be operated or a state where the working machine is working; characterised in that the system further comprises a second image capturing function control element configured to control the zoom magnification according to a zoom operation through the input interface by the zoom function as the image capturing function of the actual machine image capturing device in a second state which is a state where the working machine cannot be operated or a state where the working machine is not working. a first image capturing function control element configured to control a zoom magnification to be a specified magnification or lower by a zoom function as the image capturing function of the actual machine image capturing device in a first state which is a state where the working machine can be operated or a state where the working machine is working; characterised in that the system further comprises a second image capturing function control element configured to control the zoom magnification according to a zoom operation through the input interface by the zoom function as the image capturing function of the actual machine image capturing device in a second state which is a state where the working machine cannot be operated or a state where the working machine is not working.