Uncoated TEM Grids

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

Aperture grids consist of one central circular hole. The larger the aperture dimension, the thicker the grid, for maximum rigidity. Overall thickness variation : GA75: 25 microns, +/- 3 microns, GA2000: 50 microns, +/- 5 microns

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.

The GTH series offers a very high transmission value with the additional support of a hexagonal pattern. They offer an alternative to the standard hexagonal mesh grids for use in applications where it is important that the maximum area of specimen is available for viewing in the microscope.