Abstract: A vehicle lamp includes a first optical unit that irradiates light for forming a first beam pattern; a second optical unit that irradiates light for forming a second beam pattern and is disposed on one side of the first optical unit in a left-right direction; and a lens unit disposed in front of the first optical unit and the second optical unit to allow the light irradiated from at least one of the first optical unit or the second optical unit to pass through the lens unit to form at least one of the first beam pattern or the second beam pattern. The lens unit includes a first lens module corresponding to the first optical unit and a second lens module corresponding to the second optical unit, and the first lens module and the second lens module are integrally formed with one another.

Abstract: A vehicle lamp includes a first optical unit that irradiates light for forming a first beam pattern; a second optical unit that irradiates light for forming a second beam pattern and is disposed on one side of the first optical unit in a left-right direction; and a lens unit disposed in front of the first optical unit and the second optical unit to allow the light irradiated from at least one of the first optical unit or the second optical unit to pass through the lens unit to form at least one of the first beam pattern or the second beam pattern. The lens unit includes a first lens module corresponding to the first optical unit and a second lens module corresponding to the second optical unit, and the first lens module and the second lens module are integrally formed with one another.

Abstract: A lamp for a vehicle includes a light source unit for emitting light; a lens unit for irradiating the light emitted from the light source unit to exterior; and a shield disposed between the light source unit and the lens unit. The light source unit comprises a first light source module including at least one first light source, and at least one first optical member arranged corresponding to the first light source to emit light from the first light source to the lens unit; and a second light source module disposed above the first light source module, the second light source module including at least one second light source, and at least one second optical member arranged corresponding to the second light source to emit light from the second light source to the lens unit.

Abstract: A lamp for a vehicle includes a light source unit for emitting light; a lens unit for irradiating the light emitted from the light source unit to exterior; and a shield disposed between the light source unit and the lens unit. The light source unit comprises a first light source module including at least one first light source, and at least one first optical member arranged corresponding to the first light source to emit light from the first light source to the lens unit; and a second light source module disposed above the first light source module, the second light source module including at least one second light source, and at least one second optical member arranged corresponding to the second light source to emit light from the second light source to the lens unit.

Abstract: Provided is a display control method including: obtaining a first input of a user regarding a first region displayed on a display unit; activating an input reference object in the first region based on the first input; displaying an interface for manipulating the input reference object in a second region on the display unit based on the first input; obtaining a second input of the user regarding the interface; and changing a location of the input reference object in the first region based on the second input.

Abstract: Provided is a display control method including: obtaining a first input of a user regarding a first region displayed on a display unit; activating an input reference object in the first region based on the first input; displaying an interface for manipulating the input reference object in a second region on the display unit based on the first input; obtaining a second input of the user regarding the interface; and changing a location of the input reference object in the first region based on the second input.

Abstract: Disclosed is an economic method for concentrating virus and detecting virus, such that virus in a sample solution having low virus concentration can be concentrated with high efficiency within a short time. Particularly, the method comprising the steps of: (A) adding Concanavalin A (Con A) to a sample solution containing a virus, and reacting the added Concanavalin A with the virus in the sample solution to form a virus-Concanavalin A conjugate; and (B) separating the virus-Concanavalin A conjugate from the sample solution.

Abstract: Disclosed is an economic method for concentrating virus and detecting virus, such that virus in a sample solution having low virus concentration can be concentrated with high efficiency within a short time. Particularly, the method comprising the steps of: (A) adding Concanavalin A (Con A) to a sample solution containing a virus, and reacting the added Concanavalin A with the virus in the sample solution to form a virus-Concanavalin A conjugate; and (B) separating the virus-Concanavalin A conjugate from the sample solution.

Abstract: A method for isolating Hepatitis A virus or Spring viremia of Carp virus. A virus probe is prepared by linking a magnetic bead-conjugated Protein G with an anti-HAV (Hepatitis A Virus) antibody or an anti-rhabdovirus antibody. The virus probe is contacted with a sample to be analyzed to form a virus probe-virus complex. The virus probe-virus complex is then isolated. It may specifically isolate Hepatitis A virus or Spring viremia of Carp virus from a sample mixed viruses.

Abstract: A method for isolating Hepatitis A virus or Spring viremia of Carp virus. A virus probe is prepared by linking a magnetic bead-conjugated Protein G with an anti-HAV (Hepatitis A Virus) antibody or an anti-rhabdovirus antibody. The virus probe is contacted with a sample to be analyzed to form a virus probe-virus complex. The virus probe-virus complex is then isolated. It may specifically isolate Hepatitis A virus or Spring viremia of Carp virus from a sample mixed viruses.

Abstract: Disclosed is a radiation shielding member having improved radiation absorption performance, including 80.0˜99.0 wt % of a polymer matrix or metal matrix and 1.0˜20.0 wt % of a radiation shielding material in the form of nano-particles having a size of 10˜900 nm as a result of pulverization, wherein the radiation shielding material is homogeneously dispersed in the matrix through powder mixing or melt mixing after treatment with a surfactant which is the same material as the matrix or which has high affinity for the matrix. A preparation method thereof is also provided. This radiation shielding member including the nano-particles as the shielding material further increases the collision probability of the shielding material with radiation, compared to conventional shielding members including micro-particles, thus reducing the mean free path of radiation in the shielding member, thereby exhibiting superior radiation shielding effects.

Abstract: Disclosed is a radiation shielding member having improved radiation absorption performance, including 80.0˜99.0 wt % of a polymer matrix or metal matrix and 1.0˜20.0 wt % of a radiation shielding material in the form of nano-particles having a size of 10˜900 nm as a result of pulverization, wherein the radiation shielding material is homogeneously dispersed in the matrix through powder mixing or melt mixing after treatment with a surfactant which is the same material as the matrix or which has high affinity for the matrix. A preparation method thereof is also provided. This radiation shielding member including the nano-particles as the shielding material further increases the collision probability of the shielding material with radiation, compared to conventional shielding members including micro-particles, thus reducing the mean free path of radiation in the shielding member, thereby exhibiting superior radiation shielding effects.