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object oriented micromagnetic framework (oommf) program  (National Institute of Standards and Technology)

 
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    National Institute of Standards and Technology object oriented micromagnetic framework (oommf) program
    ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) <t>Micromagnetic</t> simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.
    Object Oriented Micromagnetic Framework (Oommf) Program, supplied by National Institute of Standards and Technology, 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/object+oriented+micromagnetic+framework+(oommf)+program/object+oriented+micromagnetic+framework/pmc04709518-130-1-10
    Average 90 stars, based on 1 article reviews
    object oriented micromagnetic framework (oommf) program - by Bioz Stars, 2026-09
    90/100 stars

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    1) Product Images from "Direct observation of deterministic domain wall trajectory in magnetic network structures"

    Article Title: Direct observation of deterministic domain wall trajectory in magnetic network structures

    Journal: Scientific Reports

    doi: 10.1038/srep19027

    ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) Micromagnetic simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.
    Figure Legend Snippet: ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) Micromagnetic simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.

    Techniques Used: Electron Microscopy, Microscopy, Injection

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    Article Title: Magnetic Properties of Nanosized Fe and FeCo Systems on Trenched Mo Templates
    Article Snippet: The simulations have been performed using the OOMMF (Object Oriented Micromagnetic Framework) public domain software, developed by the Applied and Computational Mathematics Division of National Institute of Standards and Technology (NIST) [41].

    Article Title: Probing the limits of the rigid-intensity-shift model in differential-phase-contrast scanning transmission electron microscopy
    Article Snippet: Here we work with a simulated specimen of NiFe, with magnetization vectors generated using the Object Oriented MicroMagnetic Framework (OOMMF) software developed at the National Institute of Standards and Technology (NIST) [36].

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    Article Snippet: Compensation of orange-peel coupling effect in magnetic tunnel junction free layer via shape engineering for nanomagnet logic applications

    Article Title: Direct observation of deterministic domain wall trajectory in magnetic network structures
    Article Snippet: The Object Oriented Micromagnetic Framework (OOMMF) program developed by the National Institute of Standards and Technology was used to perform the micromagnetic simulations.

    Software:

    Article Title: Direct Immobilization of Biomolecules through Magnetic Forces on Ni Electrodes via Ni Nanoparticles: Applications in Electrochemical Biosensors.
    Article Snippet: The present work describes a new simple procedure for the direct immobilization of biomolecules on Ni electrodes using magnetic Ni nanoparticles (NiNP) as biomolecule carriers.. Ni electrodes were fabricated by electroplating and NiNP were chemically synthesized.. The chemical composition, crystallinity and granular size of Ni electrodes, NiNP and NiNP modified Ni electrodes (NiNP/Ni) were determined by X-ray diffraction (XRD), scanning electron microscopy (SEM) and X-ray photoelectron spectroscopy (XPS).



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    object oriented micromagnetic framework (oommf) program  (National Institute of Standards and Technology)
    90
    National Institute of Standards and Technology object oriented micromagnetic framework (oommf) program
    ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) <t>Micromagnetic</t> simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.
    Object Oriented Micromagnetic Framework (Oommf) Program, supplied by National Institute of Standards and Technology, 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/object+oriented+micromagnetic+framework+(oommf)+program/object+oriented+micromagnetic+framework/pmc04709518-130-1-10
    Average 90 stars, based on 1 article reviews
    object oriented micromagnetic framework (oommf) program - by Bioz Stars, 2026-09
    90/100 stars
    		  Buy from Supplier

    Image Search Results


    ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) Micromagnetic simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.

    Journal: Scientific Reports

    Article Title: Direct observation of deterministic domain wall trajectory in magnetic network structures

    doi: 10.1038/srep19027

    Figure Lengend Snippet: ( a ) Schematic of ‘U’ shaped branch structure showing the trajectory of clockwise (CW) vortex domain wall (VDW) along the upper branch and anticlockwise (ACW) VDW along the lower branch. ( b ) Scanning electron microscopy (SEM) image of the ‘U-shaped’ branch structure shown in the middle used for studying field induced DW motion. Show on the left is the magnetic force microscopy (MFM) image of the initial magnetization configuration of an array of branch structures when the transverse nanowire and output branch are saturated along the − y and − x direction, respectively. Shown on the right of SEM is the final magnetization configuration of the array structure when a head-to-head clockwise (HH-CW) VDW is injected and driven. The results indicate that the DW selects the output branch randomly. ( c ) Micromagnetic simulations depicting the VDW motion along the + x direction in the branch structure at magnetic field strength of 65 Oe. The DW moves in opposite branches for the two field strengths. ( d ) Relative distribution of successful and failed trials when a DW is propagated in a symmetric structure. The success in a trial implies that the DW follows a selective trajectory governed by its initial chirality.

    Article Snippet: The Object Oriented Micromagnetic Framework (OOMMF) program developed by the National Institute of Standards and Technology was used to perform the micromagnetic simulations.

    Techniques: Electron Microscopy, Microscopy, Injection