mhurhangee/ep-ind-claims huggingface dataset:
A backlight unit comprising: a light guide plate; a printed circuit board having at least one light emitting diode that emits light toward an incident surface formed at one side of the light guide plate; a bottom cover receiving the light guide plate and the printed circuit board therein; and a fixing member formed with a recess section, into which the printed circuit board is press-fitted, such that the printed circuit board is fixed to the fixing member; wherein the fixing member is integrally formed with the bottom cover; and wherein the fixing member comprises: a pressing surface configured to press a top surface of the printed circuit board; and a support surface extending upward from a bottom surface of the bottom cover; characterized in that a portion of the support surface has a height relatively lower than that of the printed circuit board and comes in close contact with a rear surface of the printed circuit board, and the support surface is formed at upper and lower ends thereof with concave sections to distribute stress caused by deformation of the pressing surface when the printed circuit board is press-fitted into the recess section. a light guide plate; a printed circuit board having at least one light emitting diode that emits light toward an incident surface formed at one side of the light guide plate; a bottom cover receiving the light guide plate and the printed circuit board therein; and a fixing member formed with a recess section, into which the printed circuit board is press-fitted, such that the printed circuit board is fixed to the fixing member; wherein the fixing member is integrally formed with the bottom cover; and wherein the fixing member comprises: a pressing surface configured to press a top surface of the printed circuit board; and a support surface extending upward from a bottom surface of the bottom cover; a pressing surface configured to press a top surface of the printed circuit board; and a support surface extending upward from a bottom surface of the bottom cover; characterized in that a portion of the support surface has a height relatively lower than that of the printed circuit board and comes in close contact with a rear surface of the printed circuit board, and the support surface is formed at upper and lower ends thereof with concave sections to distribute stress caused by deformation of the pressing surface when the printed circuit board is press-fitted into the recess section.
A thermochromic color-memory microcapsule pigment comprising a thermochromic color-memory composition encapsulated therein, wherein the thermochromic color-memory composition comprises an electron donating coloring organic compound, an electron accepting compound, and an ester compound represented by the following formula as a reaction medium which controls color reaction of the components and, and wherein the component ratio among components, and is that component is within a range of from 0.1 to 50 parts by mass and component is within a range of from 5 to 200 parts by mass based on 1 part by mass of component: in the formula, X represents any of a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 4 carbon atoms, and a halogen atom, m represents an integer of from 1 to 3, and n represents an integer of from 1 to 20. an electron donating coloring organic compound, an electron accepting compound, and an ester compound represented by the following formula as a reaction medium which controls color reaction of the components and, and wherein the component ratio among components, and is that component is within a range of from 0.1 to 50 parts by mass and component is within a range of from 5 to 200 parts by mass based on 1 part by mass of component: in the formula, X represents any of a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 4 carbon atoms, and a halogen atom, m represents an integer of from 1 to 3, and n represents an integer of from 1 to 20.
A polypeptide having trehalase activity, selected from the group consisting of: (a) a polypeptide having at least 95% sequence identity to the mature polypeptide of SEQ ID NO: 21; (b) a fragment of the polypeptide of (a) that has trehalase activity; and wherein the polypeptide has a thermal denaturing temperature, Td, of at least 63°C when determined by thermal shift assay. (a) a polypeptide having at least 95% sequence identity to the mature polypeptide of SEQ ID NO: 21; (b) a fragment of the polypeptide of (a) that has trehalase activity; and
A method for use in an analog front end component (210; 804) of a modem, the method comprising: receiving, by the analog front end component (210; 804), a digital modulated signal having a first frequency from a system on chip, SoC of the modem, wherein the digital modulated signal is synchronized with a master clock signal; remodulating the digital modulated signal to a remodulated signal having a target frequency by a remodulation circuitry (250; 350; 450; 550) of the analog front end component (210; 804), wherein the remodulated signal is synchronized with the master clock signal; and converting the remodulated signal to an analog output signal of the analog front end component by an analog-to-digital converter of the analog front end component (210; 804), the method further comprising: pre-correcting the digital modulated signal such that the first frequency is selected to compensate for frequency offset with respect to the master clock that is caused by the remodulating of the digital modulated signal, and determining the frequency offset using a demodulator (230; 630) in the SoC. receiving, by the analog front end component (210; 804), a digital modulated signal having a first frequency from a system on chip, SoC of the modem, wherein the digital modulated signal is synchronized with a master clock signal; remodulating the digital modulated signal to a remodulated signal having a target frequency by a remodulation circuitry (250; 350; 450; 550) of the analog front end component (210; 804), wherein the remodulated signal is synchronized with the master clock signal; and converting the remodulated signal to an analog output signal of the analog front end component by an analog-to-digital converter of the analog front end component (210; 804), the method further comprising: pre-correcting the digital modulated signal such that the first frequency is selected to compensate for frequency offset with respect to the master clock that is caused by the remodulating of the digital modulated signal, and determining the frequency offset using a demodulator (230; 630) in the SoC.
A computed tomography system comprising: an x-ray source adapted to rotate about and emit radiation through an imaging region; at least one finite energy resolution detector adapted to detect the emitted radiation after having traversed the imaging region, wherein the at least one finite energy resolution detector includes a plurality of sub-detectors, wherein each sub-detector is associated with one or more different energy thresholds and each energy threshold is used to count a number of incident photons corresponding to an energy range, wherein at least one of the plurality of sub-detectors includes Cadmium Zinc Telluride material; and a reconstruction system adapted to reconstruct the photon counts to generate one or more images of a subject residing within the imaging region, characterized in that different energy thresholds are set for the different sub-detectors such that different energy thresholds are used for different sub-detectors. an x-ray source adapted to rotate about and emit radiation through an imaging region; at least one finite energy resolution detector adapted to detect the emitted radiation after having traversed the imaging region, wherein the at least one finite energy resolution detector includes a plurality of sub-detectors, wherein each sub-detector is associated with one or more different energy thresholds and each energy threshold is used to count a number of incident photons corresponding to an energy range, wherein at least one of the plurality of sub-detectors includes Cadmium Zinc Telluride material; and a reconstruction system adapted to reconstruct the photon counts to generate one or more images of a subject residing within the imaging region, characterized in that different energy thresholds are set for the different sub-detectors such that different energy thresholds are used for different sub-detectors.
A bung plug having an integrated pressure compensation means for arrangement in a container lid of a liquid container, the bung plug having a valve housing below a plug depression, the valve housing being provided with air passage openings (38, 39, 40) and having a receiving pin arranged centrically in the valve housing for arranging a valve diaphragm whose diaphragm hub is arranged on the receiving pin, a radially outward ring edge of the valve diaphragm being in contact with a ring shoulder of the valve housing, the diaphragm hub being arranged between a depression bottom of the plug depression and a lid hub of a surge lid arranged on the receiving pin and provided with air passage openings, a surge disk being provided between the surge lid and the valve diaphragm, characterized in that the surge disk and the surge lid are realized as a unit and the surge lid has a mounting disk arranged at an axial distance (a) from the surge disk for mounting in the valve housing, said mounting disk having an outer mounting edge for forming an engagement connection with a mounting seat arranged at an inner side of a housing wall of the valve housing.
A method for mitigating threats to a plurality of wireless communication networks (118, 120, 122), the method comprising: receiving, with an electronic processor, a threat detection message identifying a threat to at least one of a plurality of remote wireless network controllers (112, 114, 116), each of the plurality of remote wireless network controllers (112, 114, 116) associated with one of the plurality of wireless communication networks (118, 120, 122); determining, with the electronic processor, based on the threat detection message, a threat rating for the threat; determining a threat mitigation action based on the threat rating, the threat mitigation action identifying at least a first remote wireless network controller of the plurality of remote wireless network controllers (112, 114, 116); and executing, with the electronic processor, the threat mitigation action, wherein the threat mitigation action includes commanding a shift in an operational function of the first remote wireless network controller to a first on-premise wireless network controller of a plurality of on-premise wireless network controllers (104, 106, 108), each of the plurality of on-premise wireless network controllers (104, 106, 108) associated with one of the plurality of wireless communication networks (118, 120, 122), wherein the first remote wireless network controller and the first on-premise wireless network controller are each associated with the same wireless communication network of the plurality of wireless communication networks (118, 120, 122). receiving, with an electronic processor, a threat detection message identifying a threat to at least one of a plurality of remote wireless network controllers (112, 114, 116), each of the plurality of remote wireless network controllers (112, 114, 116) associated with one of the plurality of wireless communication networks (118, 120, 122); determining, with the electronic processor, based on the threat detection message, a threat rating for the threat; determining a threat mitigation action based on the threat rating, the threat mitigation action identifying at least a first remote wireless network controller of the plurality of remote wireless network controllers (112, 114, 116); and executing, with the electronic processor, the threat mitigation action, wherein the threat mitigation action includes commanding a shift in an operational function of the first remote wireless network controller to a first on-premise wireless network controller of a plurality of on-premise wireless network controllers (104, 106, 108), each of the plurality of on-premise wireless network controllers (104, 106, 108) associated with one of the plurality of wireless communication networks (118, 120, 122), wherein the first remote wireless network controller and the first on-premise wireless network controller are each associated with the same wireless communication network of the plurality of wireless communication networks (118, 120, 122).
An assembly baffle for a plastic fuel tank, the assembly baffle comprising: a baffle body having a through hole through which a fluid passes; a baffle plate having a through hole through which a fluid passes; and an assembly connector; characterised in that the assembly connector includes an assembly pin provided with a pressure plate provided at an end of a protruding boss protruding from the baffle body, and an assembly hole provided with a contact protrusion (56-1, 56-2) protruding to a position adjacent to a vertical channel formed by cutting the baffle plate, the assembly connector maintaining a coupled state of the baffle body and the baffle plate such that when the assembly hole is fitted over the assembly pin, a vertical binding force is formed by restraining the protruding boss to the vertical channel such that the baffle plate is locked to a side of the baffle body, and a lateral tightening force is formed by bringing the pressure plate into close contact with the contact protrusion (56-1, 56-2) such that the baffle plate is pressed to the side of the baffle body, wherein the contact protrusion includes left and right contact protrusions (56-1, 56-2) provided at opposite left and right sides of the vertical channel. a baffle body having a through hole through which a fluid passes; a baffle plate having a through hole through which a fluid passes; and an assembly connector; characterised in that the assembly connector includes an assembly pin provided with a pressure plate provided at an end of a protruding boss protruding from the baffle body, and an assembly hole provided with a contact protrusion (56-1, 56-2) protruding to a position adjacent to a vertical channel formed by cutting the baffle plate, the assembly connector maintaining a coupled state of the baffle body and the baffle plate such that when the assembly hole is fitted over the assembly pin, a vertical binding force is formed by restraining the protruding boss to the vertical channel such that the baffle plate is locked to a side of the baffle body, and a lateral tightening force is formed by bringing the pressure plate into close contact with the contact protrusion (56-1, 56-2) such that the baffle plate is pressed to the side of the baffle body, wherein the contact protrusion includes left and right contact protrusions (56-1, 56-2) provided at opposite left and right sides of the vertical channel.
Assembly for forming a coating application device configured to spray a coating material onto a surface to be sprayed with a coating material, said assembly comprising: a base part configured to cause or assist displacements of the coating application device with respect to a surface to be sprayed, a spraying unit configured to release coating spray; and a protecting unit configured to be fixedly or removably connected with said base part and to protect coating spray against wind, characterized in that the protecting unit is at least partially dome-shaped for reducing wind resistance. a base part configured to cause or assist displacements of the coating application device with respect to a surface to be sprayed, a spraying unit configured to release coating spray; and a protecting unit configured to be fixedly or removably connected with said base part and to protect coating spray against wind, characterized in that the protecting unit is at least partially dome-shaped for reducing wind resistance.
Movement apparatus comprising a stator and at least one body which can move relative to the stator, wherein the stator has a movement surface, wherein the movable body is arranged adjacent to the movement surface, wherein the movable body is provided with at least one permanent magnet, wherein the stator has a large number of first magnetic field sensors which are arranged in a manner distributed in the region of the movement surface in such a way that a magnetic field of the at least one permanent magnet can be measured using at least one first magnetic field sensor in each position of the movable body relative to the stator, wherein the movable body has at least one first magnetic field generating apparatus which is arranged on the other side of the at least one permanent magnet in such a way that a magnetic field of the first magnetic field generating apparatus can be measured using at least one first magnetic field sensor, characterized in that the at least one movable body has in each case one associated modulation apparatus which is connected to the first magnetic field generating apparatus, wherein the modulation apparatus is designed such that an alternating magnetic field can be generated by means of the first magnetic field generating apparatus, an item of information to be transmitted being modulated onto the said alternating magnetic field.
A computer-implemented method for processing a data packet in a communication network, the method comprising: • receiving, at a private Mobile Edge Computing, MEC, data center, the data packet, wherein the private MEC data center hosts multiple virtual Evolved Packet Core, EPC, gateways, and each of the virtual EPC gateways corresponds to a respective Public Land Mobile Network, PLMN, service provider (step 502); • identifying, by the private MEC data center, a traffic routing type for the data packet (step 504); • transmitting, from the private MEC data center, the data packet based on the identified traffic routing type (step 508), • wherein the private MEC data center is communicatively coupled with a base station that is operated by a PLMN service provider, and when the data packet is received from the base station it is transmitted to the virtual EPC gateway corresponding to the PLMN service provider. • receiving, at a private Mobile Edge Computing, MEC, data center, the data packet, wherein the private MEC data center hosts multiple virtual Evolved Packet Core, EPC, gateways, and each of the virtual EPC gateways corresponds to a respective Public Land Mobile Network, PLMN, service provider (step 502); • identifying, by the private MEC data center, a traffic routing type for the data packet (step 504); • transmitting, from the private MEC data center, the data packet based on the identified traffic routing type (step 508), • wherein the private MEC data center is communicatively coupled with a base station that is operated by a PLMN service provider, and when the data packet is received from the base station it is transmitted to the virtual EPC gateway corresponding to the PLMN service provider.
A bonded substrate comprising: a single crystalline wafer made of a single crystalline body; and a supporting substrate bonded on the single crystalline wafer, the supporting substrate comprising: a silicon carbide polycrystalline substrate made of a silicon carbide polycrystalline body; and a coating layer evaporated on the silicon carbide polycrystalline body, wherein the coating layer is made of silicon carbide and is in contact with the single crystalline wafer, and an arithmetic average roughness of a surface of the coating layer that is in contact with the single crystalline wafer is 1 nanometer or less and the planar precision of the contact face of the coating layer is 30 microns or less, wherein a thickness of the coating layer is 5 microns or more to 10 microns or less. a single crystalline wafer made of a single crystalline body; and a supporting substrate bonded on the single crystalline wafer, the supporting substrate comprising: a silicon carbide polycrystalline substrate made of a silicon carbide polycrystalline body; and a coating layer evaporated on the silicon carbide polycrystalline body, wherein a silicon carbide polycrystalline substrate made of a silicon carbide polycrystalline body; and a coating layer evaporated on the silicon carbide polycrystalline body, wherein the coating layer is made of silicon carbide and is in contact with the single crystalline wafer, and an arithmetic average roughness of a surface of the coating layer that is in contact with the single crystalline wafer is 1 nanometer or less and the planar precision of the contact face of the coating layer is 30 microns or less, wherein a thickness of the coating layer is 5 microns or more to 10 microns or less.
A light system comprising a light supply arrangement (1, 11, 31, 41, 51, 61), a Homogenizing Light Pipe, HLP, (2, 12, 22, 32, 42, 52, 62) and a fiber bundle (3, 13, 23, 33, 43, 53, 63), said light supply arrangement comprises a light source (1a, 1a', 31a, 51a) and is arranged to supply light to be received by an input end of said HLP, said HLP being configured for scrambling said received light and for delivering a beam of light to a common packed input end of said fiber bundle, characterized in that the light source is a laser light source, wherein said laser light source spans over a wavelength range of at least about 100 nm, said light supply arrangement comprises a wavelength filter, said wavelength filter being wavelength tunable and being configured for filtering off two or more wavelength ranges from an input light beam.