Using 3 dimensional numerical simulations, this paper shows that grading the atomic number and thus the resistivity at the interface between an embedded high atomic number guide element and a lower atomic number substrate enhances the growth of a resistive magnetic field. This can lead to a large integrated magnetic flux density, which is fundamental to confining higher energy fast electrons. This results in significant improvements in both magnetic collimation and fast-electron-temperature uniformity across the guiding. The graded interface target provides a method for resistive guiding that is tolerant to laser pointing
Guided transport of a relativistic electron beam in solid is achieved experimentally by exploiting t...
Antiferromagnets offer considerable potential for electronic device applications. This article revie...
With the move to recording densities up to and beyond 1 Tb/in/sup 2/, the size of read elements is c...
Using 3 dimensional numerical simulations, this paper shows that grading the atomic number and thus ...
We show, using three dimensional hybrid particle-in-cell simulations, that fast electron transport i...
Magnetic collimation via resistivity gradients is an innovative approach to electron beam control fo...
Collimated transport of fast electron beam through solid density matter is one of the key issues beh...
The effect of target material on fast-electron transport is investigated using a high-intensity (0.7...
We present experimental results for hybrid ferromagnet/semiconductor devices in which 2D electrons p...
The role of low-temperature electrical resistivity in defining the transport properties of mega-Ampe...
We present a permanent ring magnet arrangement that can achieve a tunable axial magnetic field from ...
In this paper we present a multiple element magnetic device to guide atoms using a spatially inhomog...
We report grazing incidence x-ray scattering evidence for sharpening of the interface between amorph...
The influence of lattice-melt-induced resistivity gradients on the transport of mega-ampere currents...
This unit belongs to the fourth part of the course, which is focussed on magnet design. Here we wil...
Guided transport of a relativistic electron beam in solid is achieved experimentally by exploiting t...
Antiferromagnets offer considerable potential for electronic device applications. This article revie...
With the move to recording densities up to and beyond 1 Tb/in/sup 2/, the size of read elements is c...
Using 3 dimensional numerical simulations, this paper shows that grading the atomic number and thus ...
We show, using three dimensional hybrid particle-in-cell simulations, that fast electron transport i...
Magnetic collimation via resistivity gradients is an innovative approach to electron beam control fo...
Collimated transport of fast electron beam through solid density matter is one of the key issues beh...
The effect of target material on fast-electron transport is investigated using a high-intensity (0.7...
We present experimental results for hybrid ferromagnet/semiconductor devices in which 2D electrons p...
The role of low-temperature electrical resistivity in defining the transport properties of mega-Ampe...
We present a permanent ring magnet arrangement that can achieve a tunable axial magnetic field from ...
In this paper we present a multiple element magnetic device to guide atoms using a spatially inhomog...
We report grazing incidence x-ray scattering evidence for sharpening of the interface between amorph...
The influence of lattice-melt-induced resistivity gradients on the transport of mega-ampere currents...
This unit belongs to the fourth part of the course, which is focussed on magnet design. Here we wil...
Guided transport of a relativistic electron beam in solid is achieved experimentally by exploiting t...
Antiferromagnets offer considerable potential for electronic device applications. This article revie...
With the move to recording densities up to and beyond 1 Tb/in/sup 2/, the size of read elements is c...