Translation of "Elektronenmikroskopische aufnahme" in English

FIG. 3 a shows an electron micrograph of a polymer membrane with inadequately developed pore structure,

An electron micrograph of the membrane is shown in FIG. 3 b .

FIG. 13 shows an electron microscopic photograph of the prepared powder material.

Particle size and particle morphology are determined by means of an electron micrograph of the pigment powder.

The electron micrograph shows bacteria (Hyphomicrobium sp;.

An electron microscopic image of this structure is illustrated in FIG. 2 .

FIG. 4 shows an electron micrograph 16 of the silver layer.

An electron micrograph showed cellular particle morphology.

Electron microscope image of an insect cell with a protein crystal sticking out.

The presence of the soft phase can be detected, for example, by means of an electron micrograph of the molding material.

An electron photomicrograph of the solid solution so obtained shows pigment crystals of uniform, even crystal appearance.

Electron micrograph showing Staphylococcus aureus .

FIG. 2 shows an electron microscope image of a cross-section of a metal foam structure suitable for the invention.

FIG. 1 shows an electron micrograph of the super-absorbent polymers obtained by the described method.

Left, electron-microscopic images of the single-cell Natronomona pharaonis, which prospers in hostile salt-saturated lakes.

A photograph magnified by the factor 17,000 is taken with an electron microscope and in particular with an Elmiskop II from Messrs. Siemens.

An electron microscope photograph in FIG. 3 shows the microsphere 30 of nickel on the tungsten probe tip.

An electron micrograph is taken at an enlargement by a factor of 17,000, namely on an ELMISKOP II from Siemens.

Particle size and morphology (mass distribution counted using electron microscopy): particle size and morphology are determined by taking an electron micrograph of the pigment powder.

From the 10% ascorbic acid solubilisate produced from this, an electron microscope image, which is reproduced in FIG. 1, was made after aqueous dilution of the solubilisate to 1:1000.

An electron micrograph is taken at an enlargement by a factor of 17,000, namely on an ELMISKOP II from Siemens. The micrograph is enlarged again by a factor of 4.25.

For illustration purposes, an electron microscope photograph was taken of a moulding composition according to the invention (Example 8) (contrasting with osmium tetroxide) (FIG.

An electron micrograph (TEM) of the same material in the same condition, shows the resultant structure in FIG. 1 at a magnification of 10,000 times and in FIG. 2 at a magnification of 16,000 times.

The picture under the electron microscope shows that the cells which have been described are defective spores since they contain all the layers of the wall typical of spores.

FIG. 1 illustrates an electron microscopic photograph of an a-FeOOH-pigment which was produced according to a known process using AlCl3 and impure reaction-active cast iron.

FIG. 8 is an electron photomicrograph of these mixed crystals, showing the pigment particles dispersed by ultrasonication for several seconds in a 50% mixture of ethyl alcohol/water (20,000×).

FIG. 7 is an electron photomicrograph of these mixed crystals, showing the pigment particles dispersed by ultrasonication for several seconds in a 50% mixture of ethyl alcohol/water (20,000×).

FIG. 10 shows an electron microscope image of a YBCO layer that was grown with texturing and with the YBCO seed layer and the SrTiO 3 barrier layer, but without the anti-epitaxial buffer layer, on a MgO substrate having a 45-degree step, which separates two planar regions of the substrate.