Abstract: The present invention relates to artificial skin using fibroblasts and keratinocytes, and more particularly, to a manufacturing device of artificial skin using cells differentiated from induced pluripotent stem cells (iPSCs).

Abstract: The present invention relates to artificial skin using fibroblasts and keratinocytes, and more particularly, to a manufacturing method of artificial skin using cells differentiated from induced pluripotent stem cells (iPSCs). To this end, there is provided a manufacturing method of artificial skin using cells differentiated from iPSCs including the steps of: preparing induced pluripotent stem cells (iPSCs) of a donor (S100); performing differentiating fibroblasts from the iPSCs (S140) and differentiating keratinocytes from the iPSCs (S120) simultaneously or sequentially; injecting the fibroblasts and the keratinocytes using a 3D printer (S160); and manufacturing artificial skin by co-culturing the injected fibroblasts and keratinocytes (S160).

Abstract: A plasma monitoring system includes a plasma chamber performing plasma processes, first and second plasma sensing devices, and a controller. The first and second plasma sensing devices are respectively in a first horizontal direction and a second horizontal direction perpendicular to each other from a center point of a monitoring plasma plane in the plasma chamber. The first and second plasma sensing device generate first and second detection signals with respect to the monitoring plasma plane based on a first incident beam radiated from the monitoring plasma plane in the first horizontal direction and a second incident beam radiated from the monitoring plasma plane in the second horizontal direction. The controller detects two-dimensional plasma distribution information with respect to the monitoring plasma plane by performing a convolution operation based on the first and second detection signals, and controls the plasma processes based on the two-dimensional plasma distribution information.

Abstract: A plasma monitoring system includes a plasma chamber performing plasma processes, first and second plasma sensing devices, and a controller. The first and second plasma sensing devices are respectively in a first horizontal direction and a second horizontal direction perpendicular to each other from a center point of a monitoring plasma plane in the plasma chamber. The first and second plasma sensing device generate first and second detection signals with respect to the monitoring plasma plane based on a first incident beam radiated from the monitoring plasma plane in the first horizontal direction and a second incident beam radiated from the monitoring plasma plane in the second horizontal direction. The controller detects two-dimensional plasma distribution information with respect to the monitoring plasma plane by performing a convolution operation based on the first and second detection signals, and controls the plasma processes based on the two-dimensional plasma distribution information.

Abstract: Hypervisor-based intrusion prevention platform is provided. The hypervisor-based intrusion prevention platform comprises a virtual network intrusion prevention system (vIPS) framework which obtains internal information of a virtualization system from a hypervisor and performs security control on the hypervisor in response to the result of intrusion detection carried out by using the internal information of the virtualization system, a hypervisor security application programming interface (API) module which provides an API used by the vIPS framework to access the hypervisor, an administrator account management and authentication module which manages an administrator account of a vIPS and authenticates the administrator account, an environment setting management module which manages environment setting values of modules within the vIPS, and an external interface module which provides an interface for system control and security control.