Abstract: An embodiment apparatus configured to calculate an integrated state-of-charge (SOC) for a vehicle equipped with a main battery and an auxiliary battery includes one or more processors and a storage device storing a program to be executed by the one or more processors, the program including instructions to receive a SOC of the main battery, receive a SOC of the auxiliary battery, and calculate an integrated SOC of the main battery and the auxiliary battery, based on the SOC of the main battery and the SOC for the auxiliary battery.

Abstract: The present disclosure relates to a battery pack including a battery module including a frame including a cell mounting portion formed therein on which a plurality of battery cells is disposed and a control module mounting portion formed on one outer side surface thereof, a partition wall formed on the frame and separating the plurality of battery cells, and a bus bar disposed between the partition walls over the frame and electrically connecting the plurality of battery cells; a control module coupled to the control module mounting portion and controlling operations of the battery cell; and a thermistor unit connected to the control module, coming into contact with the battery cell, and measuring a temperature of the battery cell. In an embodiment, a control module-integrated thermistor is formed so that assemblability of the thermistor is improved and the manufacturing process is shortened, thereby more accurately measuring battery cell temperature.

Abstract: A method of fabricating a cover glass includes preparing a base member including a first area and a second area, wherein a surface of the base member is substantially parallel to a direction in the first area and is inclined with respect to the direction in the second area, and forming an ink layer on the surface of the base member in the second area, and forming a first print layer by removing a portion of the ink layer and forming a second print layer on the first print layer.

Abstract: An electrified vehicle includes first and second batteries, a power conversion device connected between the first and second batteries, and a controller determining the charging current command values for the first and second batteries from the value of the external charging current based on the charging limit currents for the first and second batteries and the charging current allocation ratio determined by the SOC value of the first and second batteries and controlling the power conversion device to allocate the external charging current to the first and second batteries according to the charging current command value.

Abstract: The present invention provides a sensor mounted wafer, including: a lower case in which a mounting groove is formed; a circuit board on which a plurality of electronic components having different heights are mounted, and placed in the mounting groove; an upper case in which a plurality of insertion grooves having different depths are formed, and bonded together to the lower case so that the plurality of electronic components are inserted into the plurality of insertion grooves; and an adhesive layer placed between the mounting groove and the plurality of insertion grooves, in which the insertion grooves are formed to have different depths according to the heights of the plurality of the electronic components.

Abstract: A sensor mounted wafer includes a lower case, a circuit board, a metal layer, an upper case and lower case. A mounting groove is formed on a surface of the lower case. An electronic component is mounted on the circuit board, and placed in the mounting groove. The upper case having an insertion groove on a surface of the upper case, wherein the electronic component is inserted into the insertion groove, and the upper case is bonded together to the lower case. The metal layer placed on at least one surface of the lower case and the upper case.

Abstract: The present disclosure relates to a battery pack including: a plurality of battery cells; a module frame configured to receive the plurality of battery cells; and a partition wall configured to be disposed on at least a portion of a top or bottom of the module frame and to shield at least a portion of the battery cell. According to the embodiment of the present disclosure, even if a spark or flame occurs in a specific battery cell, the battery pack effectively blocks the spread of such a spark or flame to other battery cells, thereby preventing the risk that the entire battery pack is burned down.

Abstract: A cover window is disclosed that includes a planar surface part, side surface parts bent from a side surface of the planar side part, and curved surface parts bent from a curved surface of the planar surface part. The cover window includes: a base substrate corresponding to the planar surface part, the side surface parts, and the curved surface parts; and a light blocking layer disposed on the bottom of the base substrate. A rear surface of the base substrate, which corresponds to the curved surface parts, includes: a curved area having a curvature corresponding to the curved surface parts; and a tapered area having a tapered shape.

Abstract: A method of fabricating a cover glass includes preparing a base member including a first area and a second area, wherein a surface of the base member is substantially parallel to a direction in the first area and is inclined with respect to the direction in the second area, and forming an ink layer on the surface of the base member in the second area, and forming a first print layer by removing a portion of the ink layer and forming a second print layer on the first print layer.

Abstract: A method of fabricating a cover glass includes preparing a base member including a first area and a second area, wherein a surface of the base member is substantially parallel to a direction in the first area and is inclined with respect to the direction in the second area, and forming an ink layer on the surface of the base member in the second area, and forming a first print layer by removing a portion of the ink layer and forming a second print layer on the first print layer.

Abstract: A heat-resistant composition including: a binder resin including at least two of a silicone-modified polyester resin, a siloxane compound, or a silanol compound; a pigment including at least two of iron cobalt chromite black spinel (ICCB), copper chromite black spinel (CCB), iron chromite manganese (ICM), or carbon black; and a catalyst.

Abstract: The present invention provides a sensor mounted wafer, including: a lower case in which a mounting groove is formed; a circuit board on which a plurality of electronic components having different heights are mounted, and placed in the mounting groove; an upper case in which a plurality of insertion grooves having different depths are formed, and bonded together to the lower case so that the plurality of electronic components are inserted into the plurality of insertion grooves; and an adhesive layer placed between the mounting groove and the plurality of insertion grooves, in which the insertion grooves are formed to have different depths according to the heights of the plurality of the electronic components.

Abstract: A sensor mounted wafer includes a lower case, a circuit board, a metal layer, an upper case and lower case. A mounting groove is formed on a surface of the lower case. An electronic component is mounted on the circuit board, and placed in the mounting groove. The upper case having an insertion groove on a surface of the upper case, wherein the electronic component is inserted into the insertion groove, and the upper case is bonded together to the lower case. The metal layer placed on at least one surface of the lower case and the upper case.

Abstract: A wireless communication method for wireless power transfer (WPT) to an electric vehicle (EV) may include: transmitting, by a wireless charging control apparatus equipped in the EV, a probe request frame to a charging station, the probe request frame including identification information of an access point (AP) pre-stored in the wireless charging control apparatus; receiving, at the wireless charging control apparatus, a probe response frame from the charging station corresponding to the identification information; performing, by the wireless charging control apparatus, authentication for wireless connection initialization by transmitting first authentication information to the charging station; and after the authentication for the wireless connection initialization is completed, performing, by the wireless charging control apparatus, user authentication for WPT using second authentication information pre-stored in the wireless charging control apparatus.

Abstract: A method of fabricating a cover glass includes preparing a base member including a first area and a second area, wherein a surface of the base member is substantially parallel to a direction in the first area and is inclined with respect to the direction in the second area, and forming an ink layer on the surface of the base member in the second area, and forming a first print layer by removing a portion of the ink layer and forming a second print layer on the first print layer.

Abstract: A heat-resistant composition including: a binder resin including at least two of a silicone-modified polyester resin, a siloxane compound, or a silanol compound; a pigment including at least two of iron cobalt chromite black spinel (ICCB), copper chromite black spinel (CCB), iron chromite manganese (ICM), or carbon black; and a catalyst.

Abstract: A method performed by a discovery apparatus of EV includes: receiving a first transmit signal including a first network identifier from a supply equipment communication controller (SECC) of a charging station into which the EV enters and a plurality of PDs which are managed by the SECC and respectively located in positions corresponding to a plurality of charging spots of the charging station; transmitting a first connection request signal based on the first network identifier to the SECC; configuring a first wireless network with the SECC; receiving information relating to second network identifiers for the plurality of PDs from the SECC through the first wireless network; receiving second transmit signals including the second network identifiers from the plurality of PDs; selecting a specific PD among the plurality of PDs based on received signal strengths of the second transmit signals; and configuring a second wireless network with the specific PD.

Abstract: A wireless communication method for wireless power transfer (WPT) to an electric vehicle (EV) may include: transmitting, by a wireless charging control apparatus equipped in the EV, a probe request frame to a charging station, the probe request frame including identification information of an access point (AP) pre-stored in the wireless charging control apparatus; receiving, at the wireless charging control apparatus, a probe response frame from the charging station corresponding to the identification information; performing, by the wireless charging control apparatus, authentication for wireless connection initialization by transmitting first authentication information to the charging station; and after the authentication for the wireless connection initialization is completed, performing, by the wireless charging control apparatus, user authentication for WPT using second authentication information pre-stored in the wireless charging control apparatus.

Abstract: A method performed by a discovery apparatus of EV includes: receiving a first transmit signal including a first network identifier from a supply equipment communication controller (SECC) of a charging station into which the EV enters and a plurality of PDs which are managed by the SECC and respectively located in positions corresponding to a plurality of charging spots of the charging station; transmitting a first connection request signal based on the first network identifier to the SECC; configuring a first wireless network with the SECC; receiving information relating to second network identifiers for the plurality of PDs from the SECC through the first wireless network; receiving second transmit signals including the second network identifiers from the plurality of PDs; selecting a specific PD among the plurality of PDs based on received signal strengths of the second transmit signals; and configuring a second wireless network with the specific PD.

Abstract: An apparatus for forming a glass, the apparatus including a lower mold and an upper mold is disclosed. The lower mold may be configured to support a central portion of a lower surface of the glass. The upper mold may be configured to make point contact with an edge portion of an upper surface of the glass. The upper mold may press the edge portion of the upper surface of the glass to form a rounded portion of the edge portion of the glass. An apparatus for forming a glass, the apparatus including: a lower mold configured to make point contact with an edge portion of a lower surface of the glass; and an upper mold configured to press an interior portion of the upper surface of the glass to form a rounded portion at the edge portion of the glass, is also disclosed.