Abstract: A curtain airbag apparatus may include: an inflator part configured to inject gas; a main cushion part expanded by the gas injected from the inflator part, and coupled to a car body; and a cushion moving part interposed between the main cushion part and the car body, and expanded by the gas injected from the inflator part so as to move the main cushion part. The gas transferred to the cushion moving part may be passed through the cushion moving part and transferred to the main cushion part.

Abstract: Provided is a curtain airbag apparatus capable of preventing a head of an occupant from being moved forward at the time of an oblique collision of the vehicle. To this end, a curtain airbag apparatus according to an exemplary embodiment of the present invention includes: an auxiliary airbag which is coupled to the curtain airbag, is inflated when gas flows into the auxiliary airbag, and protrudes into the interior of a vehicle; and a support panel which is coupled to the curtain airbag and the auxiliary airbag, and supports the protruding auxiliary airbag.

Abstract: A curtain airbag apparatus includes an inflator configured to generate gas, an airbag configured to be inflated when the gas flows into the airbag, and a diffuser pocket disposed in the airbag and coupled to the inflator to distribute the gas to front and rear sides of the airbag. The diffuser pocket includes a first surface, a second surface, a first concave portion formed at a rear end of the first surface, a second concave portion formed at a rear end of the second surface, a first main sewed portion formed by sewing lower ends of the first and second surfaces, a second main sewed portion formed by sewing the first and second concave portions, and a tear seam portion formed by sewing the first surface in proximity to the first concave portion and the second surface in proximity to the second concave portion.

Abstract: Provided is a curtain airbag apparatus that prevents a head of an occupant from being moved forward. To this end, according to the curtain airbag apparatus according to the exemplary embodiment of the present invention, an auxiliary airbag is installed on an outer surface of a curtain airbag in order to prevent the head of the occupant from being moved forward.

Abstract: A curtain airbag apparatus includes an inflator configured to generate gas, an airbag configured to be inflated when the gas flows into the airbag, and a diffuser pocket disposed in the airbag and coupled to the inflator to distribute the gas to front and rear sides of the airbag. The diffuser pocket includes a first surface, a second surface, a first concave portion formed at a rear end of the first surface, a second concave portion formed at a rear end of the second surface, a first main sewed portion formed by sewing lower ends of the first and second surfaces, a second main sewed portion formed by sewing the first and second concave portions, and a tear seam portion formed by sewing the first surface in proximity to the first concave portion and the second surface in proximity to the second concave portion.

Abstract: A diffuser pocket for an airbag according to the present invention includes: an insertion portion into which a tip portion of an inflator is inserted; and a gas discharging portion which guides and discharges high-pressure gas injected from the inflator to an airbag cushion, in which the insertion portion has front and rear insertion portions in which lower portions are folded and upper portions are sewn, and the gas discharging portion has front and rear gas discharging surfaces in which a left line is folded, and upper portions and left portions are sewed, thereby preventing damage due to high-temperature and high-pressure gas injected from the inflator.

Abstract: Provided is a curtain airbag apparatus capable of preventing a head of an occupant from being moved forward at the time of an oblique collision of the vehicle. To this end, a curtain airbag apparatus according to an exemplary embodiment of the present invention includes: an auxiliary airbag which is coupled to the curtain airbag, is inflated when gas flows into the auxiliary airbag, and protrudes into the interior of a vehicle; and a support panel which is coupled to the curtain airbag and the auxiliary airbag, and supports the protruding auxiliary airbag.

Abstract: Provided is a curtain airbag apparatus that prevents a head of an occupant from being moved forward. To this end, according to the curtain airbag apparatus according to the exemplary embodiment of the present invention, an auxiliary airbag is installed on an outer surface of a curtain airbag in order to prevent the head of the occupant from being moved forward.

Abstract: Provided is a curtain airbag that prevents a head of an occupant from being moved forward and trapped between the curtain airbag and a drive airbag. To this end, the curtain airbag according to the exemplary embodiment of the present invention includes: a first panel which forms one surface; and a second panel which forms the other surface, and is greater in length in a front and rear direction than the first panel, in which the second panel has a folded portion which is folded so that the second panel has the same length in the front and rear direction as the first panel, and coupled to the first panel.

Abstract: A diffuser pocket for an airbag according to the present invention includes: an insertion portion into which a tip portion of an inflator is inserted; and a gas discharging portion which guides and discharges high-pressure gas injected from the inflator to an airbag cushion, in which the insertion portion has front and rear insertion portions in which lower portions are folded and upper portions are sewn, and the gas discharging portion has front and rear gas discharging surfaces in which a left line is folded, and upper portions and left portions are sewed, thereby preventing damage due to high-temperature and high-pressure gas injected from the inflator.

Abstract: The present invention relates to SVP protein which controls the flowering time of plants originating from Arabidopsis, a gene encoding SVP protein, a recombinant vector comprising said gene, a plant transformed with said recombinant vector, a method of controlling flowering time of plants by using said gene, and a method of searching a protein or a gene which controls the flowering time of plants by using said SVP protein or said gene encoding the same.

Abstract: The present invention relates to a gene controlling the flowering time of plants, and a method for manipulating the flowering time of plants using the gene. More particularly, the present invention relates to a LOV1 gene controlling the flowering time of plants, which is isolated from Arabidopsis thaliana, and also to a method for either delaying the flowering time of plants by overexpressing the LOV1 gene in the plants, or inducing the early flowering of the plants by repressing the expression of the LOV1 gene in the plants.

Abstract: The invention relates to root-specific expansin gene to regulating root growth and obstacle-touching stress resistance in the plant, and more particularly to a root growth regulating gene, GmEXP1, isolated from soybean (Glycine max), an expansin polypeptide encoded by the gene and a method for enhancing root growth of plants by overexpression of the gene in the plants.

Abstract: A repeating apparatus and method using wireless optical transmission is disclosed. The repeating apparatus includes a donor device for transmitting two identical copies of an optical signal by receiving a RF signal from a base station and electro-optic converting the RF signal to an optical signal, and for transmitting a RF signal by receiving two identical copies of the optical signal and optic-electro converting the optical signal to a RF signal; and a coverage device for transmitting a RF signal to a mobile communication terminal by receiving two identical copies of the optical signal from the donor device and optic-electro converting the two identical copies of the optical signal to the RF signal, and transmitting two optical signals to the donor device by receiving the RF signal from the mobile communication terminal and elector-optic converting the RF signal to the optical signal.

Abstract: A repeating apparatus and method using wireless optical transmission is disclosed. The repeating apparatus includes a donor device for transmitting two identical copies of an optical signal by receiving a RF signal from a base station and electro-optic converting the RF signal to an optical signal, and for transmitting a RF signal by receiving two identical copies of the optical signal and optic-electro converting the optical signal to a RF signal; and a coverage device for transmitting a RF signal to a mobile communication terminal by receiving two identical copies of the optical signal from the donor device and optic-electro converting the two identical copies of the optical signal to the RF signal, and transmitting two optical signals to the donor device by receiving the RF signal from the mobile communication terminal and elector-optic converting the RF signal to the optical signal.

Abstract: The present invention relates to a novel gene for S-adenosyl-L-methionine:jasmonic acid carboxyl methyltransferase, a novel jasmonic acid carboxyl methyltransferase protein synthesized therefrom, and a novel transgenic plant transformed with an expression vector containing said gene. It has been known that said enzyme synthesizes jasmonic acid methyl ester using jasmonic acid and S-adenosyl methionine as the substrate and jasmonic acid methyl ester is a compound mediating the defensive reactions upon invasion of phytopathogenic organisms and harmful insects as well as a compound for regulating the plant growth. By introducing said novel enzyme which is specifically expressed in flowers into the plant body, a transgenic plant which exhibits a resistance against phytopathogens, harmful insects and stresses without causing any adverse effect on the plant growth can be obtained.

Abstract: Methods of forming electrically interconnected lines using organic compound cleaning agents include the steps of forming a first electrically conductive line on a substrate and then forming a first electrically insulating layer on the first electrically conductive line to electrically isolate the first conductive line from adjacent regions and lines. An organic spin-on-glass (SOG) passivation layer is then formed as a planarization layer on the first electrically insulating layer. The organic SOG layer is then etched-back to define a first etched surface thereon, using a carbon-fluoride gas which also preferably contains argon. The organic SOG layer may even be sufficiently etched back to expose an upper surface of the first electrically insulating layer. The first etched surface is then exposed to an organic compound cleaning agent so that organic residues can be removed from the etched surface so that layers subsequently formed on the etched surface are less susceptible to lift-off and flaking.

Abstract: A magnetizing type induction motor includes a conventional rotor enclosed within a novel stator. The stator has a pair of crescent-shaped pole pieces, the thickness of the stator pieces at their centers being larger than the thickness at the opposite edges thereof. These stator pieces are secured together by a pair of end cover plates which are provided with fitting grooves for receiving the stator pieces, and coupling pins are installed between the facing edges of the stator pieces. This magnetizing type induction motor is easily miniaturized and is not subject to frequent failures so that it can be reliably used in automated apparatuses.

Abstract: A brushless unequal-pole electric motor includes a cylindrical rotor formed at least partly of a permanent magnet and rotatably installed within a casing, a plurality of field magnetic cores installed within the cylindrical rotor, field coils wound around the field magnetic cores for magnetizing the cores, and position-detecting sensors for detecting the positions of the magnetic poles of the cylindrical rotor. The sensors are connected to driving circuits for reversing the magnetic fields, to cause the rotor to rotate. The field magnetic cores generate magnetic fields of different magnitudes between the adjacent field magnetic cores, and generate magnetic fields of the same magnitude as that of the oppositely located field magnetic cores. In an alternate embodiment, the field magnetic cores surround the rotor.