Streak camera in standard (Bi)CMOS (bipolar complementary metal-oxide-semiconductor) technology

The conventional streak camera (CSC) is an optoelectronic instrument that captures the spatial distribution as a function of time of an ultra high-speed luminous phenomenon with picosecond temporal resolution and a typical spatial resolution of several tens of micrometers. This paper presents two tu...

Full description

Saved in:
Bibliographic Details
Published in:Measurement science & technology 2010-11, Vol.21 (11), p.115203-115203
Main Authors: Zlatanski, M, Uhring, W, Le Normand, J P, Zint, C V, Mathiot, D
Format: Article
Language:English
Subjects:
Architecture
Columns (structural)
Micrometers
Photodetectors
Sensors
Spatial resolution
Streak cameras
Temporal resolution
Citations: Items that this one cites
Items that cite this one
Online Access:Get full text
Tags: Add Tag
No Tags, Be the first to tag this record!
Description
Summary:The conventional streak camera (CSC) is an optoelectronic instrument that captures the spatial distribution as a function of time of an ultra high-speed luminous phenomenon with picosecond temporal resolution and a typical spatial resolution of several tens of micrometers. This paper presents two tubeless streak camera architectures called MISC (matrix integrated streak camera) and VISC (vector integrated streak camera), which replicate the functionality of a CSC on a single CMOS chip. The MISC structure consists of a lens, which spreads the photon flux on the surface of a specific pixel array-based (Bi)CMOS sensor. The VISC architecture is based on a sensor featuring a single column of photodetectors, where each element is coupled to a front-end and a multi-sampling and storage unit. In this case the optical objective used in front of the sensor focuses the luminous event on the several tens of micrometers wide photosensitive column. For both architectures, the spatial resolution is linked to the size of the photodetector and the temporal resolution is determined by the bandwidths of the photodetectors and the signal conditioning electronics. The capture of a 6 ns full width at half maximum 532 nm laser pulse is reported for two generations of MISC and a first generation of VISC.
ISSN:0957-0233
1361-6501
DOI:10.1088/0957-0233/21/11/115203