Abstract: A biopsy needle device is disclosed. The biopsy needle device may be configured to be advanced to a predetermined tissue sample, collect and sever the tissue sample utilizing an actuator comprising a linear displacement mechanism, and extract the tissue sample from a body tissue of a patient.

Abstract: A biopsy needle device is disclosed. The biopsy needle device may be configured to be advanced to a predetermined tissue sample, sever the tissue sample, and extract the tissue sample from a body tissue of a patient. The biopsy needle device may be further configured to dislodge the tissue sample from the biopsy needle device utilizing a stylet.

Abstract: A thrombosis macerating and aspiration device for macerating and aspirating blood clots and blockages in a blood vessel is disclosed. In some embodiments, the macerating element of the device rotates and creates a partial vacuum to assist in the aspiration of the blood clot of blockage. The macerating element may have a variety of different designs and shapes and in some embodiments, the macerating element is expandable.

Abstract: A biopsy needle assembly configured for use with a tissue biopsy device is disclosed. The biopsy needle assembly may be configured to be advanced to a predetermined tissue sample, sever the tissue sample, and extract the tissue sample from a body tissue of a patient. The biopsy needle assembly may be further configured with two or more cooperating members configured to sever a sample.

Abstract: Devices and methods used to obtain core tissue samples are disclosed. The devices may be configured to drill into cortical bone and saw a hole into a bone lesion and/or bone marrow while obtaining the core tissue sample. The devices can include a motor and a transmission configured to rotate a trocar having a tip configured for drilling and an outer coax cannula having a cutting tip configured for sawing. The core tissue sample may be received within an inner cannula. A part-off tab may cut or sever the core tissue sample from the bone lesion and/or bone marrow.

Abstract: Medical containers are provided, wherein the containers may be used to transport medical devices. The medical container can include a front panel, a rear panel, and a lower panel cooperating to form a cavity. The lower panel may include an absorbent material. The medical container may also include one or more absorbent band members disposed around at least a portion of the circumference of the cavity. An insert portion including a front panel, a rear panel, and a lower panel may be coupled to or disposed within the medical container. The insert portion may be formed from an absorbent material. Methods of using the medical containers are also provided.

Abstract: Devices and methods used to obtain a core tissue samples are disclosed. The devices may be configured to drill into cortical bone and saw a hole into a bone lesion and/or bone marrow while obtaining the core tissue sample. The devices can include a motor and a transmission configured to rotate a trocar having a tip configured for drilling and an outer coax cannula having a cutting tip configured for sawing.

Abstract: Medical containers are provided, wherein the containers may be used to transport medical devices. The medical container can include a front panel, a rear panel, and a lower panel cooperating to form a cavity. The lower panel may include an absorbent material. The medical container may also include one or more absorbent band members disposed around at least a portion of the circumference of the cavity. An insert portion including a front panel, a rear panel, and a lower panel may be coupled to or disposed within the medical container. The insert portion may be formed from an absorbent material. Methods of using the medical containers are also provided.

Abstract: A thrombosis macerating and aspiration device for macerating and aspirating blood clots and blockages in a blood vessel is disclosed. In some embodiments, the macerating element of the device rotates and creates a partial vacuum to assist in the aspiration of the blood clot of blockage. The macerating element may have a variety of different designs and shapes and in some embodiments, the macerating element is expandable.

Abstract: Medical containers are provided, wherein the containers may be used to transport medical devices. The medical container can include a front panel, a rear panel, and a lower panel cooperating to form a cavity. The lower panel may include an absorbent material. The medical container may also include one or more absorbent band members disposed around at least a portion of the circumference of the cavity. An insert portion including a front panel, a rear panel, and a lower panel may be coupled to or disposed within the medical container. The insert portion may be formed from an absorbent material. Methods of using the medical containers are also provided.

Abstract: A biopsy needle assembly configured for use with a tissue biopsy device is disclosed. The biopsy needle assembly may be configured to be advanced to a predetermined tissue sample, sever the tissue sample, and extract the tissue sample from a body tissue of a patient. The biopsy needle assembly may be further configured with two or more cooperating members configured to sever a sample.

Abstract: A biopsy needle device is disclosed. The biopsy needle device may be configured to be advanced to a predetermined tissue sample, collect and sever the tissue sample utilizing an actuator comprising a linear displacement mechanism, and extract the tissue sample from a body tissue of a patient.

Abstract: A biopsy needle device is disclosed. The biopsy needle device may be configured to be advanced to a predetermined tissue sample, sever the tissue sample, and extract the tissue sample from a body tissue of a patient. The biopsy needle device may be further configured to dislodge the tissue sample from the biopsy needle device utilizing a stylet.

Abstract: Medical containers are provided, wherein the containers may be used to transport medical devices. The medical container can include a front panel, a rear panel, and a lower panel cooperating to form a cavity. The lower panel may include an absorbent material. The medical container may also include one or more absorbent band members disposed around at least a portion of the circumference of the cavity. An insert portion including a front panel, a rear panel, and a lower panel may be coupled to or disposed within the medical container. The insert portion may be formed from an absorbent material. Methods of using the medical containers are also provided.

Abstract: A medical needle shield apparatus is provided that includes a needle hub (104 ) having an outer needle cannula (103) extending therefrom. An inner needle (106) is disposed for slidable movement with the outer needle cannula (103). At least one shield (101) is extensible from a retracted position to an extended position to enclose a distal end of the inner needle (101). The shield (101) includes a binding member (105) disposed within the shield (101) and defines binding surfaces (122) that form an aperture (138) configured for slidable receipt of the inner needle (106). The binding member (105) includes a binding member reset surface (107) aligned with a reset surface (108) for engagement therewith to allow reuse of a shielded needle apparatus.

Abstract: A medical needle shield apparatus is provided that includes a needle hub having an outer needle cannula extending therefrom. An inner needle is disposed for slidable movement with the outer needle cannula. At least one shield is extensible from a retracted position to an extended position to enclose a distal end of the inner needle. The shield includes a binding member disposed within the shield and defines binding surfaces that form an aperture configured for slidable receipt of the inner needle. The binding member includes a binding member reset surface aligned with a hub reset surface for engagement therewith to allow reuse of a shielded needle apparatus.

Abstract: A medical needle shield apparatus is provided that includes a shield that is extensible from a retracted position to an extended position to enclose a distal end of a needle. A binding member is disposed within the shield and defines binding surfaces that form an aperture configured for slidable receipt of the needle between the retracted position and the extended position. The binding member includes at least one drag inducing member extending therefrom that is configured for slidable engagement with the needle between the retracted position and the extended position such that the at least one drag inducing member engages the needle to create a drag force with the needle. The drag force causes rotation of the binding member relative to a longitudinal axis of the needle such that the binding surfaces engage the needle to prevent slidable movement of the needle in the extended position of the shield.