K. Arisaka

Multimodal immobilization of second-instar Drosophila melanogaster larvae using PF-127 hydrogel and diethyl ether for calcium imaging

This paper evaluates a multimodal immobilization method for Drosophila larvae to improve calcium imaging by reducing motion artifacts.

Transverse Sheet Illumination Microscopy (TranSIM): A High-Speed Platform for Large-Scale Volumetric Imaging

TranSIM is a high-speed volumetric imaging system that captures large-scale neural activity with reduced bandwidth constraints and improved spatial resolution.

Visual Perception of 3D Space and Shape In Time - Part IV: 3D Shape Recognition by 3D Rotation

This paper investigates how humans recognize 3D faces with arbitrary orientation by measuring reaction times and proposes a model linking mental rotation to alpha brainwave phase.

Visual Perception of 3D Space and Shape in Time - Part I: 2D Space Perception by 2D Linear Translation

The paper introduces the NHT model to explain how stable allocentric space perception is maintained through time-coded neural processes, supported by reaction time experiments showing eccentricity-dependent delays.

Visual Perception of 3D Space and Shape in Time - Part III: 2D Shape Recognition by Log-Scaling

The paper tests a model of mental scaling using reaction times to recognize faces of varying sizes, finding RT increases proportional to log-scale scaling factors and consistent with depth perception.

Visual Perception of 3D Space and Shape in Time - Part II: 3D Space Perception with Holographic Depth

The paper develops models to explain 3D space perception using time signals and tests them with reaction time experiments showing distance-dependent delays.

Visual Perception in the Periphery: The Role of Covert Attention Vectors in the Extraction of Semantic Information

The paper investigates how covert attention affects peripheral visual acuity by manipulating crowding conditions and proposes a model involving a covert attention vector.

Lateral phase differences in a population model of the visual cortex are sufficient for the development of rhythmic spatial sampling

The paper uses a population model of the visual cortex to show that lateral phase differences in inhibitory oscillations enable rhythmic spatial sampling and directional communication between cortical regions.