Abstract: A container filling assembly includes a plurality of fluid storage containers, and a fluid inlet for supplying a fluid from a fluid source to the containers. A vacuum source creates a vacuum in the containers to draw the fluid into the containers and thereby fill the containers. A connective structure connects the vacuum inlet and the fluid inlet in fluid communication with the containers.

Abstract: A container filling assembly includes a plurality of fluid storage containers, and a fluid inlet for supplying a fluid from a fluid source to the containers. A vacuum source creates a vacuum in the containers to draw the fluid into the containers and thereby fill the containers. A connective structure connects the vacuum inlet and the fluid inlet in fluid communication with the containers.

Abstract: A container filling assembly includes a plurality of fluid storage containers, a fluid inlet for supplying a fluid to the containers, a vacuum source for creating a vacuum in the containers to draw the fluid into the containers, and a connective structure for connecting the vacuum source and the fluid source in fluid communication with the containers. Preferably, the container filling assembly is a sterile, closed system.

Abstract: A tissue dissociation device (10) includes a container (12) having a sterile interior for holding the tissue to be dissociated and a liquid medium. The device (10) also includes a dissociation element (54), inside the container (12), for engaging the tissue to cause dissociation of the tissue. The device (10) also includes a resistive element (81), inside the container (12), for resisting movement of the tissue in response to the engagement by the dissociation element (54). Relative motion between and the resulting resistance provided by the resistive element (81) allows the dissociation element (54) to effectively dissociate the tissue. A powered tissue dissociation device includes a power source operatively connected to the dissociation element (54) for causing the dissociation element (54) to move into engagement with the tissue.

Abstract: A biopsy device such as a core sampling biopsy device compatible with use in a Magnetic Resonance Imaging (MRI) environment by being driven by either a pneumatic rotary motor or a piezoelectric drive motor is disclosed. The core sampling biopsy device obtains a tissue sample, such as a breast tissue biopsy sample, for diagnostic or therapeutic purposes. The biopsy device may include an outer cannula having a distal piercing tip, a cutter lumen, a side tissue port communicating with the cutter lumen, and at least one fluid passageway disposed distally of the side tissue port. The inner cutter may be advanced in the cutter lumen past the side tissue port to sever a tissue sample.

Abstract: A core sampling biopsy device is compatible with use in a Magnetic Resonance Imaging (MRI) environment by being driven by either a pneumatic rotary motor or a piezoelectric drive motor. The core sampling biopsy device obtains a tissue sample, such as a breast tissue biopsy sample, for diagnostic or therapeutic purposes. The biopsy device may include an outer cannula having a distal piercing tip, a cutter lumen, a side tissue port communicating with the cutter lumen, and at least one fluid passageway disposed distally of the side tissue port. The inner cutter may be advanced in the cutter lumen past the side tissue port to sever a tissue sample. A cutter drive assembly maintains a fixed gear ratio relationship between a cutter rotation speed and translation speed of the inner cutter regardless of the density of the tissue encountered to yield consistent sample size.

Abstract: A container filling assembly includes a plurality of fluid storage containers, a fluid inlet for supplying a fluid to the containers, a vacuum source for creating a vacuum in the containers to draw the fluid into the containers, and a connective structure for connecting the vacuum source and the fluid source in fluid communication with the containers. Preferably, the container filling assembly is a sterile, closed system.

Abstract: A tissue dissociation device (10) includes a container (12) having a sterile interior for holding the tissue to be dissociated and a liquid medium. The device (10) also includes a dissociation element (54), inside the container (12), for engaging the tissue to cause dissociation of the tissue. The device (10) also includes a resistive element (81), inside the container (12), for resisting movement of the tissue in response to the engagement by the dissociation element (54). Relative motion between and the resulting resistance provided by the resistive element (81) allows the dissociation element (54) to effectively dissociate the tissue.

Abstract: A core sampling biopsy device is compatible with use in a Magnetic Resonance Imaging (MRI) environment by being driven by either a pneumatic rotary motor or a piezoelectric drive motor. The core sampling biopsy device obtains a tissue sample, such as a breast tissue biopsy sample, for diagnostic or therapeutic purposes. The biopsy device may include an outer cannula having a distal piercing tip, a cutter lumen, a side tissue port communicating with the cutter lumen, and at least one fluid passageway disposed distally of the side tissue port. The inner cutter may be advanced in the cutter lumen past the side tissue port to sever a tissue sample.