module bandsolve (Rsoft Inc)
90
Structured Review
Rsoft Inc
module bandsolve
Module Bandsolve, supplied by Rsoft Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/module+bandsolve/bandsolve+module/pmc08004163-45-90-93
Average 90 stars, based on 1 article reviews
Module Bandsolve, supplied by Rsoft Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/module+bandsolve/bandsolve+module/pmc08004163-45-90-93
Average 90 stars, based on 1 article reviews
module bandsolve - by Bioz Stars,
2026-11
90/100 stars
Images
Related Articles
Dispersion:Article Title: Dispersion engineering of W2 steeple-house-defect waveguide photonic crystal Article Snippet: .. Fig. 2 illustrates the contour map of fundamental dispersion U(K,w) and group velocity vg/c of the transverse-magnetic (TM) guided mode through the plane-wave expansion (PWE) method by using the Article Title: Five-Line Photonic Crystal Waveguide for Optical Buffering and Data Interconnection of Picosecond Pulse Article Snippet: Abstract— A five-line (5L) photonic crystal waveguide (PCW) capable of realizing compact, optical buffering and low-distortion data interconnection of picosecond pulse is presented and studied through plane-wave expansion and finite-difference time-domain methods.. By appropriately modifying the radii of defects in the 5L PCW, high buffering performance and low-distortion slow light transmission of picosecond pulses are achieved, which are guaranteed by an optimized value of normalized delay bandwidth product (NDBP) of 0.6811 for the proposed PCW.. The largest buffering storage capacity and bandwidth obtained are about 219.73 bit and 19.55 nm respectively. Article Title: High buffering capability of silicon-polymer photonic-crystal coupled cavity waveguide Article Snippet: Buffering capability based on the slow light properties of siliconpolymer photonic-crystal coupled cavity waveguide (SP-PC-CCW) was set forth.. We focused on reducing the dispersion and enhancing the buffering capability, including storage capacity, storage time, and physical size of each bit by appropriately adjusting the radii of the silicon filled rods in the first, second rows of the polymerphotonic-crystal slab, and the radius of the central cavity.. We fulfilled the highest favorable value of the longest storage time of about 554.60ps and the highest storage density as 0.125464 bit/μmwhich is 1.72 times of the highest reported in PC-CCWmicro-optical buffer. Article Title: High Figure of Merit Optical Buffering in Coupled-Slot Slab Photonic Crystal Waveguide with Ionic Liquid Article Snippet: .. The dispersion curves in b were obtained by the plane-wave expansion method (PWE) with the Software:Article Title: Dispersion engineering of W2 steeple-house-defect waveguide photonic crystal Article Snippet: .. Fig. 2 illustrates the contour map of fundamental dispersion U(K,w) and group velocity vg/c of the transverse-magnetic (TM) guided mode through the plane-wave expansion (PWE) method by using the Article Title: Five-Line Photonic Crystal Waveguide for Optical Buffering and Data Interconnection of Picosecond Pulse Article Snippet: Abstract— A five-line (5L) photonic crystal waveguide (PCW) capable of realizing compact, optical buffering and low-distortion data interconnection of picosecond pulse is presented and studied through plane-wave expansion and finite-difference time-domain methods.. By appropriately modifying the radii of defects in the 5L PCW, high buffering performance and low-distortion slow light transmission of picosecond pulses are achieved, which are guaranteed by an optimized value of normalized delay bandwidth product (NDBP) of 0.6811 for the proposed PCW.. The largest buffering storage capacity and bandwidth obtained are about 219.73 bit and 19.55 nm respectively. Article Title: A novel proposal based on 2D linear resonant cavity photonic crystals for all-optical NOT, XOR and XNOR logic gates Article Snippet: .. In this paper, we have used the Article Title: High buffering capability of silicon-polymer photonic-crystal coupled cavity waveguide Article Snippet: Buffering capability based on the slow light properties of siliconpolymer photonic-crystal coupled cavity waveguide (SP-PC-CCW) was set forth.. We focused on reducing the dispersion and enhancing the buffering capability, including storage capacity, storage time, and physical size of each bit by appropriately adjusting the radii of the silicon filled rods in the first, second rows of the polymerphotonic-crystal slab, and the radius of the central cavity.. We fulfilled the highest favorable value of the longest storage time of about 554.60ps and the highest storage density as 0.125464 bit/μmwhich is 1.72 times of the highest reported in PC-CCWmicro-optical buffer. Article Title: High Figure of Merit Optical Buffering in Coupled-Slot Slab Photonic Crystal Waveguide with Ionic Liquid Article Snippet: .. The dispersion curves in b were obtained by the plane-wave expansion method (PWE) with the other:Article Title: Deformable and conformal silk hydrogel inverse opal Article Snippet: The photonic band diagrams for the inverse opals with the fcc structure were simulated using the commercial software ( Article Title: A comparative study of photonic band gaps for different materials of one dimensional photonic crystals Article Snippet: Photonic band gaps were investigated for two different one-dimensional photonic crystal—air/dielectric and—air/semiconductor systems using seven dissimilar materials including Lithium Niobate (LiNbO3), Silicon Nitride (Si3N4), Indium Tin Oxide (In2O3-SnO2 or ITO), Polymethyle Methacrylate air/semiconductor than that of the air/dielectric system.. The largest band gap were found to be 54% in air/Germanium (Ge) system, whereas the least band gap (22%) were observed in air/Silicon di-oxide (SiO2) system.. The higher the refractive index contrast, the wider the band gap and vice versa. |