The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The single use stapler places one staple each time the instrument handle is squeezed. The staple first penetrates the skin and is then formed, thus holding the tissue together.
The APPOSE ULC single use skin stapler dispenses one staple each time the instrument trigger is activated. The staples first penetrate the skin and are then formed, holding the tissue together.
The APPOSE ULC single use skin stapler dispenses one staple each time the instrument trigger is activated. The staples first penetrate the skin and are then formed, holding the tissue together.
The APPOSE ULC single use skin stapler dispenses one staple each time the instrument trigger is activated. The staples first penetrate the skin and are then formed, holding the tissue together.
The APPOSE ULC single use skin stapler dispenses one staple each time the instrument trigger is activated. The staples first penetrate the skin and are then formed, holding the tissue together.
Tissue-culture treated plates provide uniform and compatible surfaces for animal cell attachment and growth. Each well has a raised rim to minimize cross-contamination.
Tissue-culture treated plates provide uniform and compatible surfaces for animal cell attachment and growth. Each well has a raised rim to minimize cross-contamination.
Bottoms are 60% thinner than conventional polystyrene microplates, resulting in lower background fluorescence and enabling readings down to 340 nm.      Opaque walls prevent well-to-well cross-talk.
Bottoms are 60% thinner than conventional polystyrene microplates, resulting in lower background fluorescence and enabling readings down to 340 nm.      Opaque walls prevent well-to-well cross-talk.