mhurhangee/ep-ind-claims huggingface dataset:
A lighting module comprising: a substrate; a plurality of light emitting devices disposed on the substrate; a resin layer disposed on the substrate and the plurality of light emitting devices; a phosphor layer disposed on the resin layer; and a plurality of recess portions overlapping each of the light emitting devices in a vertical direction, wherein each of the recess portions is formed to be concave toward each of the light emitting devices on an upper surface of the resin layer and includes an inclined side surface lower than the upper surface of the resin layer, characterized in that: an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices, wherein a pitch between the light emitting devices is equal to or greater than a thickness of the resin layer, wherein a shortest distance between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness of the light emitting device, and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices. a substrate; a plurality of light emitting devices disposed on the substrate; a resin layer disposed on the substrate and the plurality of light emitting devices; a phosphor layer disposed on the resin layer; and a plurality of recess portions overlapping each of the light emitting devices in a vertical direction, wherein each of the recess portions is formed to be concave toward each of the light emitting devices on an upper surface of the resin layer and includes an inclined side surface lower than the upper surface of the resin layer, characterized in that: an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices, wherein a pitch between the light emitting devices is equal to or greater than a thickness of the resin layer, wherein a shortest distance between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness of the light emitting device, and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices. an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices, wherein a pitch between the light emitting devices is equal to or greater than a thickness of the resin layer, wherein a shortest distance between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness of the light emitting device, and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices.
A skin care composition comprising: a dermatologically acceptable carrier; a plurality of interference pigments, wherein a summation of all the interference pigments in the composition having a D50 particle size between 2 μm and 75 μm is equal to or less than 4% of the composition by weight; and wherein the composition has a redness reduction index of less than -7.5; wherein the composition has a healthy skin color change value (HSCCV) of less than 3; wherein the plurality of pigments comprise at least a first and second interference pigment, wherein the first interference pigment has a hue angle (h°) between 180°-224° and wherein the second interference pigment has a hue angle (h°) between 80°-95°; and wherein said particle size, RRI and HSCCV are determined according to the methods in the description. a dermatologically acceptable carrier; a plurality of interference pigments, wherein a summation of all the interference pigments in the composition having a D50 particle size between 2 μm and 75 μm is equal to or less than 4% of the composition by weight; and wherein the composition has a redness reduction index of less than -7.5; wherein the composition has a healthy skin color change value (HSCCV) of less than 3; wherein the plurality of pigments comprise at least a first and second interference pigment, wherein the first interference pigment has a hue angle (h°) between 180°-224° and wherein the second interference pigment has a hue angle (h°) between 80°-95°;
A system comprising: a micro server comprising: a plurality of processor modules; and a network controller comprising a single physical port, a physical apparatus and a virtual apparatus which are mapped onto the plurality of processor modules; and a host (600") comprising: a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules, wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus. a plurality of processor modules; and a network controller comprising a single physical port, a physical apparatus and a virtual apparatus which are mapped onto the plurality of processor modules; and a host (600") comprising: a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules, wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus. a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules, wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus.
A hinge with a textile, which connects a first part of the hinge and a second part of the hinge with one another, characterised in that the textile is a fabric and has a gauze made up of loops between the parts.
A refrigerator comprising: a storage room for storing fruits or vegetables; a light source provided on the top surface and in the inner side of the storage room; a lower container provided in the storage room; an upper container arranged at a part of an upper part of the lower container characterized in that the upper container is composed of a light penetrable material; a lid being formed from a material allowing penetration of light and configured to be closed when the lower container and the upper container are in a state of being housed in the storage room and to stay at the storage room when the lower container and the upper container are in a state of being drawn out and preventing transpiration of water out of the upper container and the lower container; and a cold air discharge port configured to supply a cold air into the storage room, wherein the cold air discharge port is configured to supply the cold air into a storage space of the lower container such that the cold air flows indirectly into the upper container through the lower container so that the cold air does not directly flow into the upper container, and wherein the light source is arranged just above the opening of lower container and the light is indirectly applied into the upper container via the upper container composed of light penetrable material.
Use of at least one cyclic peptide as an active component in a non-therapeutic cosmetic treatment of the skin and/or its appendages, said cyclic peptide consisting of at least five amino acids including at least one proline (Pro) and at least two phenylalanine (Phe), the other amino acids being selected from the group comprising leucine (Leu), isoleucine (Ile), valine (Val), alanine (Ala), glycine (Gly) Methionine (Met) and Tryptophan (Trp), Methionine (Met), when present, may be unoxidized or oxidized, wherein said cyclic peptide comprises at most 15 amino acids, wherein the cyclic peptide comprises at least one leucine, and wherein the cyclic peptide comprises at least two phenylalanines and/or at least two prolines. wherein said cyclic peptide comprises at most 15 amino acids, wherein the cyclic peptide comprises at least one leucine, and wherein the cyclic peptide comprises at least two phenylalanines and/or at least two prolines.
Filling element arrangement (1, 1') for filling containers with a liquid filling material, comprising at least one filling element with at least one filling element housing, which is formed from at least one upper and one lower housing element (19.1, 19.2), and comprises at the lower housing element (19.2) at least one discharge opening for discharging the filling material into the respective container, with a liquid valve for controlling the discharge of the filling material, wherein the liquid valve (6, 6') comprises at least one valve housing, which, on the side facing towards the discharge opening, comprises a mouth opening, wherein at least one liquid channel is provided in the valve housing, through which the liquid filling material flows during the filling process, as well as a valve body, wherein, in order to control the discharge of the filling material, inside the valve housing the valve body can be moved between a closed position and an open position, wherein the lower housing element (19.2) comprises a first filling element housing section (16.1) arranged in a fixed position, as well as a second filling element housing section (16.2), which can be moved relative to the first in a controlled manner along a filling element axis between a raised position and a lowered position, wherein a housing wall section (16.3) is provided between the first and second filling element housing sections (16.1, 16.2), configured such as to surround the valve housing along the filling element axis in a gas-tight manner, and such as to be expanded or displaced, and the second filling element housing section (16.2) forms the discharge opening, wherein at least the housing wall section (16.3), which is configured such as to be expanded or displaced, is formed from a first sealing element and a second filling element, provided such as to leave a gas-tight annular gap in relation to the first sealing element, and wherein the first and/or second sealing element (20, 21) are configured in the form of folding bellows, characterised in that the gas-tight annular gap formed between the first and second sealing elements (20, 21) can be subjected to a gaseous medium in order to initiate the controlled movement onto the second filling element section (16.2), and that, for the vertical guidance of the second filling element section (16.2) between the raised and lowered position (ABP, ANP), at least one guide device (25, 25') is provided along the filling element axis.
Spherical rotation method for manufacturing rotationally moulded parts, in which a spherical receiving device in which there is at least one negative casting mould charged with starting material is rotated, characterized in that the spherical receiving device is at least partially formed as electrically conductive and in that electrical energy is passed through the spherical receiving device during the rotating operation in such a way that an electric current flows through the spherical receiving device, the electrical energy being used to heat the at least one negative casting mould.
A household cooking appliance, particularly an oven, having a stationary structure, a front door, articulated to said structure, a covering element, particularly a covering element of a user interface, being secured to a fore component of the structure above or below the door, the door and the covering element being mounted on the structure in such a way that, in a closed condition of the door, between a lower edge, respectively an upper edge, of the covering element and an upper edge, respectively a lower edge, of the door an interstice is defined, the covering element being secured in a fixed position to the fore component of the structure via fixing means including threaded members, wherein the fore component of the structure and the covering element have mutual hooking means, comprising first hooking means on the fore component and second hooking means on the covering element; wherein the fore component has two opposite side regions, at which the covering element is fixed in two respective opposite side regions via the fixing means and wherein the first and the second hooking means are prearranged for obtaining a loose coupling therebetween, with play, and the fixing means are prearranged for enabling the covering element to be secured in a fixed position on the fore component in one of a plurality of possible alternative positions allowed by the play existing between the first hooking means and the second hooking means characterised in that each of the side regions of said fore component has two through openings, in a position set on top of one another, and each side region of said covering element has two receiving seats, in a position set on top of one another, with said first hooking means and said second hooking means that are arranged in an intermediate position between the openings and the seats.
An assembly comprising: - a steam inlet duct for admitting steam to a low-pressure turbine, - and at least one segment (31, 32) formed of at least two rigid shells (311, 312, 321, 322), each shell (311, 312, 321, 322) comprising at least one fixing orifice for fixing to the duct and at least one fixing element, wherein: the duct comprises at least one internally threaded boss per shell (311, 312, 321, 322), which boss is welded to the duct and against which boss the shell (311, 312, 321, 322) rests in direct contact, at least one orifice and one boss face one another, and the fixing element passes through the orifice facing the boss and the fixing element is fixed to the boss. - a steam inlet duct for admitting steam to a low-pressure turbine, - and at least one segment (31, 32) formed of at least two rigid shells (311, 312, 321, 322), each shell (311, 312, 321, 322) comprising at least one fixing orifice for fixing to the duct and at least one fixing element, wherein: the duct comprises at least one internally threaded boss per shell (311, 312, 321, 322), which boss is welded to the duct and against which boss the shell (311, 312, 321, 322) rests in direct contact, at least one orifice and one boss face one another, and the fixing element passes through the orifice facing the boss and the fixing element is fixed to the boss. the duct comprises at least one internally threaded boss per shell (311, 312, 321, 322), which boss is welded to the duct and against which boss the shell (311, 312, 321, 322) rests in direct contact, at least one orifice and one boss face one another, and the fixing element passes through the orifice facing the boss and the fixing element is fixed to the boss.
A mobile device comprising: a plate, the plate being adapted to accommodate a printed circuit board; a ring bonded to the plate via a plurality of attachment sites; a seal disposed between the ring and the plate between the attachment sites, the plate and ring and seal forming a mid-plate structure; wherein the seal comprises a platform; and a housing unit bonded to the platform. a plate, the plate being adapted to accommodate a printed circuit board; a ring bonded to the plate via a plurality of attachment sites; a seal disposed between the ring and the plate between the attachment sites, the plate and ring and seal forming a mid-plate structure; wherein the seal comprises a platform; and a housing unit bonded to the platform.
(Amended) A device for controlling an alternating-current motor, comprising: a sensor for detecting a rotational position of said alternating-current motor; and a control unit for performing control based on an output of said sensor to provide a rectangular wave voltage to each phase of said alternating-current motor, said control unit causing an amount of change in a voltage phase of the rectangular wave voltage of said each phase from a switching reference phase of said each phase to increase/decrease such that said amount of change is equivalent at each switching in one cycle of electrical angle determined from the output of said sensor, said control unit calculates a total amount of change in the voltage phase of the rectangular wave voltage for each said one cycle of electrical angle, and divides said total amount by the number of times said switching is performed in said one cycle, so asto set an amount of increase/decrease of said amount of change in the voltage phase of the rectangular wave voltage of said each phase, characterized in that said control unit sets a difference in phase at an n-th switching from said switching reference phase of said each phase in said one cycle, to a value n times larger than said amount of increase/decrease. a sensor for detecting a rotational position of said alternating-current motor; and a control unit for performing control based on an output of said sensor to provide a rectangular wave voltage to each phase of said alternating-current motor, said control unit causing an amount of change in a voltage phase of the rectangular wave voltage of said each phase from a switching reference phase of said each phase to increase/decrease such that said amount of change is equivalent at each switching in one cycle of electrical angle determined from the output of said sensor, said control unit calculates a total amount of change in the voltage phase of the rectangular wave voltage for each said one cycle of electrical angle, and divides said total amount by the number of times said switching is performed in said one cycle, so asto set an amount of increase/decrease of said amount of change in the voltage phase of the rectangular wave voltage of said each phase, characterized in that said control unit sets a difference in phase at an n-th switching from said switching reference phase of said each phase in said one cycle, to a value n times larger than said amount of increase/decrease.
An electronic circuit breaker, comprising: a switching contact (201, 202, 203) that is configured to open and close an electric path (111, 112, 113); a current detecting device (21, 22, 23) that is configured to detect a current in the electric path (111, 112, 113); a characteristic setting unit that is configured to set an instantaneous tripping characteristic and a time-limit tripping characteristic for opening the switching contact (201, 202, 203) in accordance with a current flowing through the electric path (111, 112, 113); characterized in that a first microcomputer into which an output signal of the current detecting device (21, 22, 23) is input, and which is configured to output an instantaneous tripping signal; a second microcomputer to which the characteristic setting unit is connected, and which is configured to transmit the instantaneous tripping characteristic to the first microcomputer, acquire information on a current flowing through the electric path (111, 112, 113) from the first microcomputer, and output a time-limit tripping signal; and a tripping device that is configured to open the switching contact (201, 202, 203) based on the instantaneous tripping signal and the time-limit tripping signal. a switching contact (201, 202, 203) that is configured to open and close an electric path (111, 112, 113); a current detecting device (21, 22, 23) that is configured to detect a current in the electric path (111, 112, 113); a characteristic setting unit that is configured to set an instantaneous tripping characteristic and a time-limit tripping characteristic for opening the switching contact (201, 202, 203) in accordance with a current flowing through the electric path (111, 112, 113); characterized in that a first microcomputer into which an output signal of the current detecting device (21, 22, 23) is input, and which is configured to output an instantaneous tripping signal; a second microcomputer to which the characteristic setting unit is connected, and which is configured to transmit the instantaneous tripping characteristic to the first microcomputer, acquire information on a current flowing through the electric path (111, 112, 113) from the first microcomputer, and output a time-limit tripping signal; and a tripping device that is configured to open the switching contact (201, 202, 203) based on the instantaneous tripping signal and the time-limit tripping signal.
A control method for spark ignition internal combustion engine, comprising: forming an air-fuel mixture with an air-fuel ratio of about 30 in a cylinder by first fuel injection; causing a low temperature oxidation reaction by compressing the mixture; performing second fuel injection to inject an amount of fuel to make an air-fuel ratio of the air-fuel mixture in the entire cylinder including the air-fuel mixture formed by the first fuel injection leaner than the stoichiometric air-fuel ratio toward the vicinity of a discharge channel of an ignition plug, that is close enough to cause a fuel spray to ignite when the ignition plug is sparked, during a period in which the air-fuel mixture is undergoing the low temperature oxidation reaction; and performing spark ignition by the ignition plug at a timing at which a spark of the ignition plug reaches the fuel injected by the second fuel injection after the second fuel injection. forming an air-fuel mixture with an air-fuel ratio of about 30 in a cylinder by first fuel injection; causing a low temperature oxidation reaction by compressing the mixture; performing second fuel injection to inject an amount of fuel to make an air-fuel ratio of the air-fuel mixture in the entire cylinder including the air-fuel mixture formed by the first fuel injection leaner than the stoichiometric air-fuel ratio toward the vicinity of a discharge channel of an ignition plug, that is close enough to cause a fuel spray to ignite when the ignition plug is sparked, during a period in which the air-fuel mixture is undergoing the low temperature oxidation reaction; and performing spark ignition by the ignition plug at a timing at which a spark of the ignition plug reaches the fuel injected by the second fuel injection after the second fuel injection.