Abstract: The present disclosure relates to a method for automatically scaling a multi-container-based computational session on a cluster. The method includes: receiving, by a node controller, event information and statistical information about a container from a container engine; forwarding, by the node controller, the sensed event information and statistical information to a cluster controller; determining, by the cluster controller, whether to add or delete the container for a specific session based on the received event information and statistical information; forwarding, by the cluster controller, a container addition or deletion command to the node controller of the specific session according to a determination result; and determining, by the cluster controller, whether to add or delete the node by determining whether it is impossible to add the container only with an existing node or when it is necessary to delete the container.

Abstract: A composite pad and a battery cell assembly and a battery module including the composite pad are disclosed. In some implementations, the battery cell assembly comprises a plurality of battery cells arranged in a direction, and one or more pads, each pad disposed between two adjacent battery cells of the plurality of battery cells, at least one of the one or more pads including a pad body with elasticity, and a heat generating part coupled to the pad body and connected to an edge of the at least one of the one or more pads and configured to generate heat upon application of electric power to the heat generating part.

Abstract: A battery module includes a battery cell stack including a plurality of battery cells stacked and arranged in a first direction; a module housing in which the battery cell stack is housed; and a deformation preventing structure disposed between the outermost battery cell of a plurality of battery cells and the module housing, wherein the module housing includes a housing plate including a space part and disposed adjacent to the outermost battery cell, the deformation preventing structure includes: a pressure plate fixed to the housing plate and supported on the battery cell stack; and a spring structure accommodated in the space part of the housing plate and disposed between the pressure plate and the housing plate. The space part is constituted by a recess portion provided on one side of the housing plate facing the battery cell stack.

Abstract: The present invention relates to an image compensation device for an image for augmented reality. The image compensation device includes: a compensation function determination unit configured to determine a compensation function for compensating the luminance information of an observed image observed by a user through an optical device for augmented reality when an original image for augmented reality is output from an image output unit; and a pre-compensated image information generation unit configured to generate pre-compensated image information for augmented reality based on the compensation function determined by the compensation function determination unit and original image information for augmented reality.

Abstract: A battery pack includes a battery module including a first sub-battery module and a pair of second sub-battery modules disposed on both sides of the first sub-battery module, respectively; a pack frame on which the battery module is mounted; and a pair of connection portions that penetrate through the upper and lower portions of the first sub-battery module and the pair of second sub-battery modules, respectively. Both sides of the pair of connection portions are fixed to the side surface portion of the pack frame. The first sub-battery module is fixed to the bottom surface of the pack frame. The second sub-battery module moves along the longitudinal direction of the connection portion.

Abstract: A battery pack includes a lower pack frame on which a plurality of battery modules are mounted; an upper pack frame located in the upper part of the plurality of battery modules; and a rigid beam included in the lower pack frame, wherein the rigid beam is formed of a reinforcing member including a viscous damper or a viscoelastic damper.

Abstract: A battery module includes a battery cell stack in which a plurality of battery cells are stacked, a module frame that surrounds the battery cell stack, a bus bar frame that covers the portion of the battery cell stack exposed from the module frame, a bus bar that is connected to an electrode lead protruding from the battery cell stack through the bus bar frame, a gas sensor formed on the bus bar frame, a bus bar cover portion that covers the bus bar, and a neutralizer housing portion formed on the bus bar cover portion.

Abstract: A battery module includes a battery cell stack in which a plurality of battery cells are stacked; a module frame that houses the battery cell stack; and a damper included in the module frame or located adjacent to the module frame. The module frame comprises an upper cover that wraps an upper surface of the battery cell stack and a bottom part that wraps a lower surface of the battery cell stack, and wherein the damper comprises a viscous damper or a viscoelastic damper.