mhurhangee/ep-ind-claims huggingface dataset:
An encryption device comprising: an encryption key generation unit that generates an encryption key on the basis of photoelectric random numbers that are random numbers obtained on the basis of photoelectric conversion performed by an array sensor in which a plurality of pixels having light-receiving elements for visible light or non-visible light are one-dimensionally or two-dimensionally arranged; and an encryption unit (10, 10A) that performs encryption of an analog target signal provided by the array sensor on the basis of the encryption key generated by the encryption key generation unit, wherein the encryption key generation unit generates the encryption key by acquiring analog electrical signals of the pixels obtained through the photoelectric conversion as the photoelectric random numbers, and the encryption key generation unit further generates the encryption key in a form in which at least parts of the analog electrical signals of the pixels are allocated to pixel positions different from pixel positions at which the values of the corresponding electrical signals are obtained. an encryption key generation unit that generates an encryption key on the basis of photoelectric random numbers that are random numbers obtained on the basis of photoelectric conversion performed by an array sensor in which a plurality of pixels having light-receiving elements for visible light or non-visible light are one-dimensionally or two-dimensionally arranged; and an encryption unit (10, 10A) that performs encryption of an analog target signal provided by the array sensor on the basis of the encryption key generated by the encryption key generation unit, wherein the encryption key generation unit generates the encryption key by acquiring analog electrical signals of the pixels obtained through the photoelectric conversion as the photoelectric random numbers, and the encryption key generation unit further generates the encryption key in a form in which at least parts of the analog electrical signals of the pixels are allocated to pixel positions different from pixel positions at which the values of the corresponding electrical signals are obtained.
An apparatus for processing a semiconductor wafer surface with fluids containing ozone, comprising: an ozone generator (11, 21, 22, 31, 41, 42, 51, 61, 62, 711, 712, 81, 821, 822, 91, 101, 102, 111, 112), a solvent flask (12, 23, 32, 43, 52, 63, 721, 722, 831, 832, 92, 103, 113), a gas-liquid mixing device (13, 24, 33, 44, 53, 64, 731, 732, 841, 842, 93, 104, 114), a closed chamber (14, 25, 34, 45, 54, 65, 74, 85, 94, 105, 115) for containing the wafer to be processed, and a gas-liquid delivery system and a gas-liquid discharge system; wherein the ozone generator and the solvent flask are connected with corresponding inlets of the gas-liquid mixing device, respectively, and outlets of the gas-liquid mixing device are connected with at least one inlet of the closed chamber, characterized in that: a gas-liquid separation device (35, 46, 55, 66, 751, 752, 861, 862, 95, 97, 106, 108) or another ozone generator (21, 41, 712, 81, 101, 111) is provided for ensuring a concentration of ozone in solution by transferring gas-liquid mixed fluids containing ozone via the gas-liquid separation device or solutions containing ozone and ozone gas after generation by the another ozone generator into the closed chamber and by increasing a partial pressure of ozone in gas phase.
Powder supplying device for a powder coating installation with at least one closed or closable powder container, which has a substantially cuboidal powder chamber for coating powder and a fluidizing device for introducing fluidizing compressed air into the powder chamber, at least one inlet opening, opening out into the powder chamber, is provided in a side wall of the powder container for feeding coating powder as and when required during the powder coating operation of the powder coating installation, characterized in that furthermore at least one outlet (31, 33), leading out from the powder chamber, is provided for discharging fluidizing compressed air introduced into the powder chamber or optionally for discharging cleaning air introduced into the powder chamber during the cleaning operation together with residual powder transported along with the cleaning compressed air, and wherein a powder feed line (20, 20') is connected to the at least one inlet opening, and in that the inlet opening for coating powder provided in a side wall of the powder container is also provided for introducing cleaning compressed air during the cleaning operation of the coating installation, and that at said inlet opening at least one powder feed line (20, 20') and at least one cleaning compressed air feed line (101-1, 101-2, 101-3) is connected via a diverter.
A method for providing a domain name system, DNS, query change information for providing edge computing application server (141, 151) information to a user equipment, UE (101, 102, 701) by a session management function, SMF in a mobile communication system, the method comprising: identifying whether a modification of the DNS query for the UE (101, 102, 701) to receive an edge computing service is required based on a first information obtained on the UE (101, 102, 701); and providing the DNS query change information to a device that transmits a DNS query from the UE (101, 102, 701) to a DNS server when the modification of the DNS query is applicable to the UE (101, 102, 701) based on the identification result, wherein the DNS query change information includes an edge computing service zone identifier, ESZI, and wherein the ESZI is information for identifying which IP range to search for in the DNS server. identifying whether a modification of the DNS query for the UE (101, 102, 701) to receive an edge computing service is required based on a first information obtained on the UE (101, 102, 701); and providing the DNS query change information to a device that transmits a DNS query from the UE (101, 102, 701) to a DNS server when the modification of the DNS query is applicable to the UE (101, 102, 701) based on the identification result, wherein the DNS query change information includes an edge computing service zone identifier, ESZI, and wherein the ESZI is information for identifying which IP range to search for in the DNS server.
An isolation diaphragm subassembly for a process fluid pressure transmitter, the isolation diaphragm subassembly comprising: a circular weld ring having a first side and a second side, the first side having a sealing portion adapted to contact a metal sealing ring and the second side having a weld portion being configured to be welded to a sensor body; and an isolation diaphragm, characterized in that the isolation diaphragm is welded to the second side of the weld ring; and wherein the sealing portion and the weld portion are substantially aligned with each other. a circular weld ring having a first side and a second side, the first side having a sealing portion adapted to contact a metal sealing ring and the second side having a weld portion being configured to be welded to a sensor body; and an isolation diaphragm, characterized in that the isolation diaphragm is welded to the second side of the weld ring; and wherein the sealing portion and the weld portion are substantially aligned with each other.
A method for preparing a super absorbent polymer, comprising the steps of: carrying out a thermal polymerization or a photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator to form a hydrogel polymer; drying the hydrogel polymer; pulverizing a dried polymer; mixing a super absorbent polymer fine powder having a particle diameter of 180 μm or less and a polymer having a particle diameter of 300 μm or more among the pulverized polymer; and adding steam to a mixture to carry out a reassembling, and wherein the reassembling step is carried out by mixing the super absorbent polymer fine powder having the particle diameter of 180 μm or less in an amount of 60 to 95% by weight and the polymer having the particle diameter of 300 μm or more in an amount of 5 to 40% by weight, wherein after the reassembling step, the method further comprises a step of drying the reassembled polymer, wherein after the step of drying the reassembled polymer, the method further comprises a step of pulverizing or classifying the dried reassembled polymer, the method further comprising a step of surface-crosslinking the pulverized or classified reassembled polymer, and wherein a weight ratio of particles of 180 μm or below is less than 5%, based on the entire weight of the reassembled polymer after the pulverization. carrying out a thermal polymerization or a photopolymerization of a monomer composition including a water-soluble ethylene-based unsaturated monomer and a polymerization initiator to form a hydrogel polymer; drying the hydrogel polymer; pulverizing a dried polymer; mixing a super absorbent polymer fine powder having a particle diameter of 180 μm or less and a polymer having a particle diameter of 300 μm or more among the pulverized polymer; and adding steam to a mixture to carry out a reassembling, and wherein the reassembling step is carried out by mixing the super absorbent polymer fine powder having the particle diameter of 180 μm or less in an amount of 60 to 95% by weight and the polymer having the particle diameter of 300 μm or more in an amount of 5 to 40% by weight, wherein after the reassembling step, the method further comprises a step of drying the reassembled polymer, wherein after the step of drying the reassembled polymer, the method further comprises a step of pulverizing or classifying the dried reassembled polymer, the method further comprising a step of surface-crosslinking the pulverized or classified reassembled polymer, and wherein a weight ratio of particles of 180 μm or below is less than 5%, based on the entire weight of the reassembled polymer after the pulverization.
A rotor for an electrical machine comprising: a laminated core having a main axis and a plurality of poles (3a, 3b) delimiting a plurality of radial seats extending along the main axis, each seat being delimited by a first and a second pole (3a, 3b), the rotor comprising a plurality of magnets inserted in the seats and springs for locking the magnets in the seats, the springs operating between each magnet and the first pole delimiting the relative seat for pushing each magnet towards the second pole delimiting the same seat, the rotor being characterised in that the springs are positioned astride the relative first pole, each spring pushing on two adjacent magnets forcing them against a face of a respective second pole located on the opposite side to the spring relative to the magnet. a laminated core having a main axis and a plurality of poles (3a, 3b) delimiting a plurality of radial seats extending along the main axis, each seat being delimited by a first and a second pole (3a, 3b), the rotor comprising a plurality of magnets inserted in the seats and springs for locking the magnets in the seats, the springs operating between each magnet and the first pole delimiting the relative seat for pushing each magnet towards the second pole delimiting the same seat, the rotor being characterised in that the springs are positioned astride the relative first pole, each spring pushing on two adjacent magnets forcing them against a face of a respective second pole located on the opposite side to the spring relative to the magnet.
A method of characterizing a part made of composite material, comprising a step of determining a characteristic of a longitudinal ultrasound wave traveling along a path within the part, where - the propagation time of an ultrasound wave transmitted in the absence of the part is measured, between a transducer operating as a transmitter and a transducer operating as a receiver, seperated by water, - the propagation times of ultrasound waves reflected respectively by a first face of the part and by a second face of the part are measured (E2, E3), each of the transducers (10, 20) operating as transceiver and facing one of said faces (31, 32), in order to determine the thickness of the part traveled by the longitudinal ultrasound wave traveling along a path in the part, - the travel time of a longitudinal ultrasound wave transmitted by the part is measured, one of the transducers operating as a transmitter and the other operating as a reveiver, - the amplitude of the transmitted wave is also measured in order to determine the overall or unit length attenuation to which the longitudinal ultrasound wave is subjected on traveling in the part, wherein the expression for attenuation in the material is: α 2 = 1 X 2 Ln Y 1 Y 2. t 12 t 21 + α 1 X 2 where X 2 is the thickness of the part, Y 1 is the amplitude of the wave transmitted from the emitter to the receiver, Y 2 is the amplitude of the wave transmitted from the emitter to the receiver after passing through the material, t 12 is the amplitude transmission coefficient from water to the material and t 21 is the amplitude transmission coefficient from the material to water, and α 1 is the attenuation of the wave in water. - the propagation time of an ultrasound wave transmitted in the absence of the part is measured, between a transducer operating as a transmitter and a transducer operating as a receiver, seperated by water, - the propagation times of ultrasound waves reflected respectively by a first face of the part and by a second face of the part are measured (E2, E3), each of the transducers (10, 20) operating as transceiver and facing one of said faces (31, 32), in order to determine the thickness of the part traveled by the longitudinal ultrasound wave traveling along a path in the part, - the travel time of a longitudinal ultrasound wave transmitted by the part is measured, one of the transducers operating as a transmitter and the other operating as a reveiver, - the amplitude of the transmitted wave is also measured in order to determine the overall or unit length attenuation to which the longitudinal ultrasound wave is subjected on traveling in the part, wherein the expression for attenuation in the material is: α 2 = 1 X 2 Ln Y 1 Y 2. t 12 t 21 + α 1 X 2 where X 2 is the thickness of the part, Y 1 is the amplitude of the wave transmitted from the emitter to the receiver, Y 2 is the amplitude of the wave transmitted from the emitter to the receiver after passing through the material, t 12 is the amplitude transmission coefficient from water to the material and t 21 is the amplitude transmission coefficient from the material to water, and α 1 is the attenuation of the wave in water.
A display apparatus comprising: a display panel configured to display an image in a forward direction thereof; a bezel disposed on an edge of the display panel; and a light refraction member disposed in front of the bezel, the light refraction member including a transparent material, and configured to refract outside light, coming from a rear side of the display apparatus and obliquely inclined with respect to the forward direction, in the forward direction, wherein the bezel comprises a front part which covers edge portions of a front surface of the display panel and an edge part which covers side surfaces of the display panel, and the light refraction member includes a refraction surface disposed to be inclined relative to the forward direction from the front part of the bezel to the edge part of the bezel, wherein the refraction surface refracts the light coming from the rear side of the display apparatus and obliquely inclined with respect to the forward direction in the forward direction of the bezel; and a front end of the refraction surface is disposed further outward than the bezel; and the rear end of the refraction surface is disposed on a region of the edge of the display panel and characterized in that the display apparatus further comprises a reflection member provided between a front side of the bezel and the light refraction member. a display panel configured to display an image in a forward direction thereof; a bezel disposed on an edge of the display panel; and a light refraction member disposed in front of the bezel, the light refraction member including a transparent material, and configured to refract outside light, coming from a rear side of the display apparatus and obliquely inclined with respect to the forward direction, in the forward direction, wherein the bezel comprises a front part which covers edge portions of a front surface of the display panel and an edge part which covers side surfaces of the display panel, and the light refraction member includes a refraction surface disposed to be inclined relative to the forward direction from the front part of the bezel to the edge part of the bezel, wherein the refraction surface refracts the light coming from the rear side of the display apparatus and obliquely inclined with respect to the forward direction in the forward direction of the bezel; and a front end of the refraction surface is disposed further outward than the bezel; and the rear end of the refraction surface is disposed on a region of the edge of the display panel and characterized in that the display apparatus further comprises a reflection member provided between a front side of the bezel and the light refraction member.
A display method, comprising: determining a video selected by a user to be displayed in a transition animation; displaying, by an electronic device, a first screen on a display of the electronic device in response to a received first user operation, and playing the video in a first transition animation on the first screen; wherein the first screen comprises a first display box, and the first transition animation is displayed in the first display box; switching, by the electronic device, from the first screen to a second screen on the display of the electronic device in response to a received second user operation when a first image frame of the video in the first transition animation is played on the first display box; wherein the second screen comprises a second display box, a size of the second display box is the same as that of the first display box, and a position of the second display box on the display is the same as that of the first display box on the display; and playing all image frames between the first image frame and the last image frame of the video in the first transition animation on the second display box when in a process of gradually enlarging and moving the second display box to the screen center of the display of the electronic device; wherein the first image frame of the video is any image frame between the initial image frame of the video and the last image frame of the video. determining a video selected by a user to be displayed in a transition animation; displaying, by an electronic device, a first screen on a display of the electronic device in response to a received first user operation, and playing the video in a first transition animation on the first screen; wherein the first screen comprises a first display box, and the first transition animation is displayed in the first display box; switching, by the electronic device, from the first screen to a second screen on the display of the electronic device in response to a received second user operation when a first image frame of the video in the first transition animation is played on the first display box; wherein the second screen comprises a second display box, a size of the second display box is the same as that of the first display box, and a position of the second display box on the display is the same as that of the first display box on the display; and playing all image frames between the first image frame and the last image frame of the video in the first transition animation on the second display box when in a process of gradually enlarging and moving the second display box to the screen center of the display of the electronic device; wherein the first image frame of the video is any image frame between the initial image frame of the video and the last image frame of the video.
A power receiving device comprising: a power receiving coil configured to receive power supplied by electromagnetic waves; a measurement coil which is disposed to surround the power receiving coil and is configured to measure an electromagnetic field; a voltage acquisition circuit configured to acquire an induced voltage of the measurement coil generated in the measured electromagnetic field; a current acquisition circuit configured to acquire an induced current of the power receiving coil generated in the measured electromagnetic field; and a detection circuit configured to detect presence or absence of foreign matter which hinders power reception by the electromagnetic waves from the induced voltage and the induced current. a power receiving coil configured to receive power supplied by electromagnetic waves; a measurement coil which is disposed to surround the power receiving coil and is configured to measure an electromagnetic field; a voltage acquisition circuit configured to acquire an induced voltage of the measurement coil generated in the measured electromagnetic field; a current acquisition circuit configured to acquire an induced current of the power receiving coil generated in the measured electromagnetic field; and a detection circuit configured to detect presence or absence of foreign matter which hinders power reception by the electromagnetic waves from the induced voltage and the induced current.
A syringe adapter comprising: a housing having a first end and a second end, the first end configured to be secured to a first container; a cannula having a first end and a second end, the second end of the cannula positioned within the housing; and a collet having a first end and a second end, at least a portion of the collet received within the housing, the collet comprising a body defining a passageway, a membrane received by the passageway, and a locking member connected to the body of the collet, the membrane comprising a body having a first end and a second end, the body of the membrane defines a passageway extending from the first end of the membrane body towards the second end of the membrane body and terminating intermediate the first and second ends (84, 86) of the membrane body, the collet is movable from a first position where the locking member is open to receive a mating connector to a second position where radially outward movement of the locking member is restricted, characterized in that when the collet is in the first position the second end of the cannula is positioned within the membrane passageway. a housing having a first end and a second end, the first end configured to be secured to a first container; a cannula having a first end and a second end, the second end of the cannula positioned within the housing; and a collet having a first end and a second end, at least a portion of the collet received within the housing, the collet comprising a body defining a passageway, a membrane received by the passageway, and a locking member connected to the body of the collet, the membrane comprising a body having a first end and a second end, the body of the membrane defines a passageway extending from the first end of the membrane body towards the second end of the membrane body and terminating intermediate the first and second ends (84, 86) of the membrane body, the collet is movable from a first position where the locking member is open to receive a mating connector to a second position where radially outward movement of the locking member is restricted, characterized in that when the collet is in the first position the second end of the cannula is positioned within the membrane passageway.