Examples of 'superparamagnetic' in a sentence
Meaning of "superparamagnetic"
Superparamagnetic - (adjective) - exhibiting superparamagnetism, a phenomenon where materials display magnetic properties at the nanoscale, commonly seen in nanotechnology and materials science
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- Of, pertaining to, or exhibiting superparamagnetism.
How to use "superparamagnetic" in a sentence
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superparamagnetic
This limit is known as the superparamagnetic limit.
Preferred are superparamagnetic nanoparticles based upon iron oxide.
Device for measuring a quantity of a superparamagnetic material.
Superparamagnetic materials exhibit characteristics of paramagnetism and ferromagnetism.
This is otherwise known as the superparamagnetic effect.
Superparamagnetic microparticles are also used extensively in the performance of immunoassays.
Iron oxides are the preferred superparamagnetic elements.
Superparamagnetic materials occupy the range between these extremes.
The passive metals may be diamagnetic or superparamagnetic.
Ultrasmall superparamagnetic iron oxide.
The contrast agent can be paramagnetic or superparamagnetic.
The solid support may be a superparamagnetic material or ferromagnetic material.
Fluctuating magnetic particles are particles in the superparamagnetic regime.
This is accomplished by adding superparamagnetic particles to a drop placed on a superhydrophobic surface.
The magnetic atoms or groups may be paramagnetic or superparamagnetic.
See also
This is true of particles of superparamagnetic ferrites and magnetites.
A magnetization curve revealed that the heparin particles were superparamagnetic.
The core material is preferably a superparamagnetic material such as magnetite.
A magnetization curve revealed that the starch particles were superparamagnetic.
The superparamagnetic iron oxide particles are preferably stabilized prior to being complexed.
The particles may also be of superparamagnetic material.
The superparamagnetic particles are dispersed in the solution under vigorous stirring.
Ferrite nanoparticles exhibit superparamagnetic properties.
Materials displaying magnetically responsive behavior are sometimes described as superparamagnetic.
Superparamagnetic materials are available commercially or may readily be made by known techniques.
The iron oxide is preferably superparamagnetic.
Microbeads comprised of superparamagnetic nanoparticles and QDOTs are used in the art.
A magnetization curve revealed that the chitosan particles were superparamagnetic.
Paramagnetic particles such as superparamagnetic iron oxide are also of use as labels.
Magnetic beads and particles may suitably be paramagnetic or superparamagnetic.
Paramagnetic agents such as superparamagnetic iron oxide are also of use as labels.
Preference may be given to inventive particles with superparamagnetic properties.
These superparamagnetic iron oxide particles are suitably used in the present invention.
They have been shown previously to behave as superparamagnetic materials.
Superparamagnetic particles advantageously have a higher effective density compared with ferromagnetic particles.
In particular the particles can be superparamagnetic as described in the embodiment below.
Relaxivity per particle is proportional to the saturation magnetization of a superparamagnetic material.
Suppose that the magnetization of a single superparamagnetic nanoparticle is measured over a time τm.
Ferritin can also be formulated to encapsulate a core of very high relaxation rate superparamagnetic iron.
Ferrimagnetic and ferromagnetic as well as superparamagnetic pigments are used for this purpose.
A preferable option is that the magnetically active PW particles are superparamagnetic.
Ferrimagnetic and ferromagnetic as well as superparamagnetic particles are used for this purpose.
Superparamagnetic particles are preferred in HGMS.
Particularly preferred particles useful in the present invention are superparamagnetic particles.
Magnetic core with superparamagnetic particles for current and magnetic field sensors.
By magnetic is meant herein that the polymer particles contain superparamagnetic crystals.
A ferrofluid is superparamagnetic and can create liquid seals held in position by magnetic fields.
The precipitated iron compounds may then be converted to superparamagnetic iron oxide crystals by heating.
Obtained nanoparticles show superparamagnetic properties characteristic of magnetically ordered blocks of material with nanometer size.
These systems present appealing new properties such as enhanced superparamagnetic blocking temperatures or tunable coercivity.
