We propose a new type of optical fiber called homogeneous multi-core fiber (MCF) to drastically increase the transmission capacity of single fiber using the mode-division multiplexing. In this MCF, identical cores are closely arranged so that the cores are strongly coupled to each other to form coupled modes, each of which corresponds to a transmission channel. A novel mode multi/demultiplexer is proposed to discriminate each coupled mode. To rearrange cores to match the mode multi/demultiplexer, a hybrid configuration of coupled homogeneous with uncoupled heterogeneous multi-core is proposed. An example of hybrid configuration is designed so that the cross-talk becomes sufficiently small
A seven-core few-mode multi-core fiber in which each core supports three spatial modes has been desi...
In this paper, the concept of supermode is introduced for long-distance optical transmission systems...
We discuss optical transmission using homogeneous, single-mode, multicore fibers. We first describe ...
A new type of optical fiber called heterogeneous multicore fiber (heterogeneous MCF) is proposed tow...
We describe optical data transmission systems using homogeneous, single-mode, multi-core fibers (MCF...
Layout Optimization in Multi-core Optical FibersSpace-division multiplexing (SDM) is regarded as a p...
The propagation dynamics of 7-core multi-core fibers (MCFs) with identical and three-types of cores ...
Coupling mechanisms and design issues in multi-core fibers (MCFs) for space division multiplexing ar...
Mode-division multiplexing (MDM) can achieve ultra-high data capacity in optical fiber communication...
By designing multiple single-mode cores across the multimode fiber core area, this new multimode fib...
2011-2012 > Academic research: refereed > Publication in refereed journalVersion of RecordPublishe
Multicore fibers (MCFs) are expected as a good candidate for overcoming the capacity limit of curren...
A six-mode (LP01/LP11ab/LP21ab/LP02) multi/demultiplexer based on a fusedtype multicore fiber couple...
A seven-core few-mode multi-core fiber in which each core supports three spatial modes has been desi...
We discuss optical transmission using homogeneous, single-mode, multicore fibers. We first describe ...
A seven-core few-mode multi-core fiber in which each core supports three spatial modes has been desi...
In this paper, the concept of supermode is introduced for long-distance optical transmission systems...
We discuss optical transmission using homogeneous, single-mode, multicore fibers. We first describe ...
A new type of optical fiber called heterogeneous multicore fiber (heterogeneous MCF) is proposed tow...
We describe optical data transmission systems using homogeneous, single-mode, multi-core fibers (MCF...
Layout Optimization in Multi-core Optical FibersSpace-division multiplexing (SDM) is regarded as a p...
The propagation dynamics of 7-core multi-core fibers (MCFs) with identical and three-types of cores ...
Coupling mechanisms and design issues in multi-core fibers (MCFs) for space division multiplexing ar...
Mode-division multiplexing (MDM) can achieve ultra-high data capacity in optical fiber communication...
By designing multiple single-mode cores across the multimode fiber core area, this new multimode fib...
2011-2012 > Academic research: refereed > Publication in refereed journalVersion of RecordPublishe
Multicore fibers (MCFs) are expected as a good candidate for overcoming the capacity limit of curren...
A six-mode (LP01/LP11ab/LP21ab/LP02) multi/demultiplexer based on a fusedtype multicore fiber couple...
A seven-core few-mode multi-core fiber in which each core supports three spatial modes has been desi...
We discuss optical transmission using homogeneous, single-mode, multicore fibers. We first describe ...
A seven-core few-mode multi-core fiber in which each core supports three spatial modes has been desi...
In this paper, the concept of supermode is introduced for long-distance optical transmission systems...
We discuss optical transmission using homogeneous, single-mode, multicore fibers. We first describe ...