mhurhangee/ep-ind-claims huggingface dataset:
A solar cell module comprising: a first back junction solar cell and a second back junction solar cell, each of the first and second back junction solar cells having a front side that faces the sun during normal operation and a backside opposite the front side; a transparent cover over front sides of the first and second back junction solar cells; a backsheet comprising polyester; and an encapsulant that encapsulates an entirety of the first and second back junction solar cells and fills a space between the first and second back junction solar cells, characterized in that the encapsulant having a UV transmission curve that allows light having a wavelength of 280nm and longer to pass through and a volume specific resistance of at least 5x10 13 Ωcm. a first back junction solar cell and a second back junction solar cell, each of the first and second back junction solar cells having a front side that faces the sun during normal operation and a backside opposite the front side; a transparent cover over front sides of the first and second back junction solar cells; a backsheet comprising polyester; and an encapsulant that encapsulates an entirety of the first and second back junction solar cells and fills a space between the first and second back junction solar cells, characterized in that the encapsulant having a UV transmission curve that allows light having a wavelength of 280nm and longer to pass through and a volume specific resistance of at least 5x10 13 Ωcm.
Electronic system comprising: a. a power electronics module making it possible to convert a DC current to an AC current, the power electronics module comprising: i. a first busbar and a second busbar for supplying the power electronics module with the DC current, ii. a third busbar able to supply a phase winding of a rotating electric machine, iii. a control pin receiving a control signal for driving the power electronics module, b. an electronic control module separate from the power electronics module and configured so as to generate the control signal, the electronic control module comprising an electronic measuring device, c. a support comprising an opening and carrying the electronic control module on a first side of the support, the support being made of metal, d. a measurement housing comprising a cavity, the measurement housing being located on a second side of the support opposite the first side of the support, the electronic measuring device penetrating into the opening in the support and into the cavity in the measurement housing, a sealing means (350, 810) providing a seal between the measurement housing and the support. a. a power electronics module making it possible to convert a DC current to an AC current, the power electronics module comprising: i. a first busbar and a second busbar for supplying the power electronics module with the DC current, ii. a third busbar able to supply a phase winding of a rotating electric machine, iii. a control pin receiving a control signal for driving the power electronics module, i. a first busbar and a second busbar for supplying the power electronics module with the DC current, ii. a third busbar able to supply a phase winding of a rotating electric machine, iii. a control pin receiving a control signal for driving the power electronics module, b. an electronic control module separate from the power electronics module and configured so as to generate the control signal, the electronic control module comprising an electronic measuring device, c. a support comprising an opening and carrying the electronic control module on a first side of the support, the support being made of metal, d. a measurement housing comprising a cavity, the measurement housing being located on a second side of the support opposite the first side of the support, the electronic measuring device penetrating into the opening in the support and into the cavity in the measurement housing, a sealing means (350, 810) providing a seal between the measurement housing and the support.
A method of controlling a robot cleaner, the method being characterized by: determining whether the robot cleaner is put down on a floor after being lifted up by a user; recognizing (S202, S302), if determined that the robot cleaner is put down on a floor after being lifted up by a user, a cleaning start location of the robot cleaner relative to a charger; determining (S204, S304), by a controller, whether the recognized cleaning start location of the robot cleaner is at the charger; performing an automatic cleaning process (S206, S306) along a first traveling pattern if it is determined that the recognized cleaning start location is at the charger; and performing a spot cleaning process (S208, S308) along a second travelling pattern if it is determined that the recognized cleaning start location is away from the charger. determining whether the robot cleaner is put down on a floor after being lifted up by a user; recognizing (S202, S302), if determined that the robot cleaner is put down on a floor after being lifted up by a user, a cleaning start location of the robot cleaner relative to a charger; determining (S204, S304), by a controller, whether the recognized cleaning start location of the robot cleaner is at the charger; performing an automatic cleaning process (S206, S306) along a first traveling pattern if it is determined that the recognized cleaning start location is at the charger; and performing a spot cleaning process (S208, S308) along a second travelling pattern if it is determined that the recognized cleaning start location is away from the charger.
Valve system (6, 62, 64, 66) for a tubeless wheel, the wheel comprising a rim and a tire which form an air-filled tyre/rim volume, as well as an impact protection inlay (5, 52, 54, 55, 56) arranged inside the tire/rim volume, wherein the valve system comprises a valve stem body (82, 84, 86) extending along a valve axis with a first end and a second end and a valve stem base (72, 73, 74, 75, 76) adjoining said second end, the second being positioned in the tire/rim volume, when the valve system (6, 62, 64, 66) is mounted on the wheel, characterized in that the valve stem base has an outer circumference which increases continuously along the valve axis in the direction of the tire/rim volume, forming a thickened valve stem base end, and the valve system (6, 62, 64, 66) further comprises a sleeve (4, 42, 43, 44, 45, 46) with a first end and a second end, wherein the first end of the sleeve (4, 42, 43, 44, 45, 46) is connected to the thickened end of the valve stem base (72, 73, 74, 75, 76) and the sleeve (4, 42, 43, 44, 45, 46) extends from there along the valve axis in a direction oriented away from the valve stem body (82, 84, 86). the valve stem base has an outer circumference which increases continuously along the valve axis in the direction of the tire/rim volume, forming a thickened valve stem base end, and the valve system (6, 62, 64, 66) further comprises a sleeve (4, 42, 43, 44, 45, 46) with a first end and a second end, wherein the first end of the sleeve (4, 42, 43, 44, 45, 46) is connected to the thickened end of the valve stem base (72, 73, 74, 75, 76) and the sleeve (4, 42, 43, 44, 45, 46) extends from there along the valve axis in a direction oriented away from the valve stem body (82, 84, 86).
A method for communicating by using a remote network element port, wherein the method is applied to a virtual network element, the virtual network element comprises: a master node and an egress access point, AP, the egress AP is a remote network element of the master node, and the method comprises: Determining, by the master node, a virtual port corresponding to a virtualization packet, and adding a first layer virtual local area network, VLAN, tag to the virtualization packet according to the virtual port corresponding to the virtualization packet; Sending, by the master node, the virtualization packet remote to the egress AP according to the first layer VLAN tag; Determining, by the egress AP, a remote network element port corresponding to the virtualization packet according to the first layer VLAN tag; and Removing, by the egress AP, the first layer VLAN tag, and sending the virtualization packet to a network device other than the virtual network element by using the remote network element port corresponding to the virtualization packet, wherein virtualization packets are service packets carrying user data. Determining, by the master node, a virtual port corresponding to a virtualization packet, and adding a first layer virtual local area network, VLAN, tag to the virtualization packet according to the virtual port corresponding to the virtualization packet; Sending, by the master node, the virtualization packet remote to the egress AP according to the first layer VLAN tag; Determining, by the egress AP, a remote network element port corresponding to the virtualization packet according to the first layer VLAN tag; and Removing, by the egress AP, the first layer VLAN tag, and sending the virtualization packet to a network device other than the virtual network element by using the remote network element port corresponding to the virtualization packet, wherein virtualization packets are service packets carrying user data.
Reinforcement layer for elastomeric products, in particular for the belt bandage, where the reinforcement layer has hybrid cords as reinforcement which are arranged within the layer in essence parallel to one another and are embedded into elastomeric material, where the hybrid cords have precisely three yarns, where a first yarn of the yarns is made of polyamide and where the ends of all yarns of a hybrid cord are twisted together, characterized in that • that the three yarns are composed of the first yarn made of polyamide, a second yarn made of high-modulus low-shrinkage polyethylene terephthalate (HMLS-PET) and a third yarn, • that the third yarn is composed of the material of the first yarn or of the material of the second yarn and • that the linear density of each hybrid cord is at least 5000 dtex. • that the three yarns are composed of the first yarn made of polyamide, a second yarn made of high-modulus low-shrinkage polyethylene terephthalate (HMLS-PET) and a third yarn, • that the third yarn is composed of the material of the first yarn or of the material of the second yarn and • that the linear density of each hybrid cord is at least 5000 dtex.
An optical system for a laser processing apparatus that processes a workpiece by using a laser beam emitted by a laser oscillator, the optical system including: focusing means that includes a converging lens located in a traveling direction of the laser beam and a spherical concave lens having spherical abination located downstream of the converging lens in the traveling direction of the laser beam, and that is configured to focus the laser beam into a circular shape, wherein, in use, the focal position of the laser beam is displaced from the position of the workpiece, so that due to the spherical aberration of the concave lens a central area of the laser beam is inverted to a peripheral area thereof at a position of the workpiece and the peripheral area of the laser beam is inverted to the central area at the position of the workpiece, and so that intensity distribution of the laser beam has a caldera like shape, in which the intensity of the laser beam is higher in a peripheral area than in a central area, at a position of the workpiece. focusing means that includes a converging lens located in a traveling direction of the laser beam and a spherical concave lens having spherical abination located downstream of the converging lens in the traveling direction of the laser beam, and that is configured to focus the laser beam into a circular shape, wherein, in use, the focal position of the laser beam is displaced from the position of the workpiece, so that due to the spherical aberration of the concave lens a central area of the laser beam is inverted to a peripheral area thereof at a position of the workpiece and the peripheral area of the laser beam is inverted to the central area at the position of the workpiece, and so that intensity distribution of the laser beam has a caldera like shape, in which the intensity of the laser beam is higher in a peripheral area than in a central area, at a position of the workpiece.
A method to produce uranyl difluoride UO 2 F 2 and anhydrous hydrofluoric acid HF, the method comprising the following successive steps: i) conducting a hydrolysis reaction in a reactor, wherein an initial gaseous mixture comprising uranium hexafluoride UF 6 and water in molar excess reacts in gaseous phase to obtain uranyl difluoride UO 2 F 2 in solid form and a reaction gaseous mixture comprising reaction hydrofluoric acid and reaction water; ii) condensing the reaction gaseous mixture in a first condenser to obtain a liquid reaction mixture and a first gaseous effluent; iii) in a flash drum obtaining a molar concentration of 65 % to less than 100 % of reaction hydrofluoric acid HF in the liquid reaction mixture; then iv) in the flash drum separating the liquid reaction mixture into a residual liquid mixture containing residual water and residual hydrofluoric acid HF, and into a gaseous product containing said anhydrous hydrofluoric acid HF. i) conducting a hydrolysis reaction in a reactor, wherein an initial gaseous mixture comprising uranium hexafluoride UF 6 and water in molar excess reacts in gaseous phase to obtain uranyl difluoride UO 2 F 2 in solid form and a reaction gaseous mixture comprising reaction hydrofluoric acid and reaction water; ii) condensing the reaction gaseous mixture in a first condenser to obtain a liquid reaction mixture and a first gaseous effluent; iii) in a flash drum obtaining a molar concentration of 65 % to less than 100 % of reaction hydrofluoric acid HF in the liquid reaction mixture; then iv) in the flash drum separating the liquid reaction mixture into a residual liquid mixture containing residual water and residual hydrofluoric acid HF, and into a gaseous product containing said anhydrous hydrofluoric acid HF.
An apparatus for reducing replays in an out-of-order processor, the apparatus comprising: a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to one of a plurality of non-core resources; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand; load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction; and said plurality of non-core resources, comprising: a fuse array, configured to store configuration data corresponding to the out-of-order processor. a first reservation station, configured to dispatch a first load micro instruction, and configured to detect and indicate on a hold bus if said first load micro instruction is a specified load micro instruction directed to one of a plurality of non-core resources; a second reservation station, coupled to said hold bus, configured to dispatch one or more younger micro instructions therein that depend on said first load micro instruction for execution after a first number of clock cycles following dispatch of said first load micro instruction, and if it is indicated on said hold bus that said first load micro instruction is said specified load micro instruction, said second reservation station is configured to stall dispatch of said one or more younger micro instructions until said first load micro instruction has retrieved said operand; load execution logic, coupled to said first reservation station, configured to receive and execute said first load micro instruction; and said plurality of non-core resources, comprising: a fuse array, configured to store configuration data corresponding to the out-of-order processor.
An insecticide composition which comprises thiamethoxam and one or not less than two kinds of compounds being selected from a compound represented by the formula [Ia]: wherein R1 is a halogen atom or a C1-6 haloalkyl group, R2 is a halogen atom, R3 and R5 each are a C1-6 alkyl group, R4 is a hydrogen or halogen atom, and X is N, or a salt thereof.
An optical semiconductor apparatus, comprising: a substrate; an optical semiconductor device placed on an upper surface of the substrate; a frame body disposed on the upper surface of the substrate so as to surround the optical semiconductor device; a lid body bonded to an upper surface of the frame body, the lid body having an opening at a position vertically overlapping with the optical semiconductor device; and a light-transmissive member bonded to an upper surface of the lid body so as to cover the opening, the lid body having a first portion which is positioned so as to surround the opening and has an upper surface to which the light-transmissive member is bonded, a second portion which is positioned so as to surround the first portion, and a third portion which is positioned so as to surround the second portion and has a lower surface to which the frame body is bonded, characterized by the upper surface of the first portion being positioned lower than an upper surface of the third portion, and the second portion having a thin-walled portion positioned so as to surround the first portion, the thin-walled portion having a thickness thinner than a thickness of the first portion as well as thinner than a thickness of the third portion. a substrate; an optical semiconductor device placed on an upper surface of the substrate; a frame body disposed on the upper surface of the substrate so as to surround the optical semiconductor device; a lid body bonded to an upper surface of the frame body, the lid body having an opening at a position vertically overlapping with the optical semiconductor device; and a light-transmissive member bonded to an upper surface of the lid body so as to cover the opening, the lid body having a first portion which is positioned so as to surround the opening and has an upper surface to which the light-transmissive member is bonded, a second portion which is positioned so as to surround the first portion, and a third portion which is positioned so as to surround the second portion and has a lower surface to which the frame body is bonded, characterized by the upper surface of the first portion being positioned lower than an upper surface of the third portion, and the second portion having a thin-walled portion positioned so as to surround the first portion, the thin-walled portion having a thickness thinner than a thickness of the first portion as well as thinner than a thickness of the third portion.
A stator of an electric motor comprising: a stator core; coils wound around the stator core; an insulator for providing insulation between the stator core and the coils; and a terminal, and containing, in an enclosure of the stator, the stator core with the insulator attached thereto and the coils wound therearound, wherein the insulator comprises a terminal holding portion; the terminal comprises a mounted portion mounted on the terminal holding portion of the insulator, an external connecting portion protruding to an outside from an end portion of the enclosure in an axial direction orthogonal to a diameter direction of the stator core, characterized in that the terminal further comprises a body portion formed between the mounted portion and the external connecting portion and extended in the diameter direction of the stator core, and a coil connecting portion contained in the enclosure and connected to the coils; and the coil connecting portion comprises a connecting piece provided on the body portion and extended along the diameter direction of the stator core, and a folded piece folded back from an end portion of the connecting piece in the diameter direction to sandwich the coils from the axial direction. a stator core; coils wound around the stator core; an insulator for providing insulation between the stator core and the coils; and a terminal, and containing, in an enclosure of the stator, the stator core with the insulator attached thereto and the coils wound therearound, wherein the insulator comprises a terminal holding portion; the terminal comprises a mounted portion mounted on the terminal holding portion of the insulator, an external connecting portion protruding to an outside from an end portion of the enclosure in an axial direction orthogonal to a diameter direction of the stator core, characterized in that the terminal further comprises a body portion formed between the mounted portion and the external connecting portion and extended in the diameter direction of the stator core, and a coil connecting portion contained in the enclosure and connected to the coils; and the coil connecting portion comprises a connecting piece provided on the body portion and extended along the diameter direction of the stator core, and a folded piece folded back from an end portion of the connecting piece in the diameter direction to sandwich the coils from the axial direction.