A pocket and drape system which provides multiple (e.g., at least two) sterile fields and the methodology for employing said pocket and drape system is provided. The system includes a base drape material having an upper edge, lower edge, first side edge, and second side edge to define a perimeter, where the base drape material also includes a first (outer) surface and a second (inner) surface. A first zone of pockets is present on a portion of the first surface and a second zone of pockets present on a portion of the second surface. The manner in which the base drape material is folded at first and second longitudinal fold lines and first and second transverse fold lines during assembly (e.g., prior to sterilization) maintains the sterility of the first zone of pockets and the second zone of pockets until each zone is ready for use during a medical procedure.

A sterile bag for covering medical equipment comprises: a barrier section, a flexible body section, and an attaching section. The flexible body section has a tubular shape extending from a proximal end to a distal end thereof, and an outer surface, an inner surface, and an open end. The barrier section is coupled to the proximal end, and the attaching section is formed at the distal end of the flexible body section. The barrier section is a rigid or semirigid component which attaches the sterile bag to a sterile component or to an unsterile component of the medical equipment in a pleaded or folded state. The flexible body section is configured to be deployed over the unsterile component so as to enclose within the inner surface thereof the unsterile component. The unsterile component is connectable to the sterile component through the central opening of the barrier section.

An OCT (Optical Coherence Tomography) handheld device is provided comprising: a housing configured for handheld OCT scanning during a surgical procedure, the housing comprising an OCT scanning end and a proximal end opposite the OCT scanning end; an OCT scanning device inside the housing, the OCT scanning device configured for one or more of OCT polarized scanning and Doppler OCT scanning from the OCT scanning end, the OCT scanning device further configured to receive and convey OCT light between the proximal end and an OCT analysing system; and a tip extending from the OCT scanning end, the tip being removably attached to the OCT scanning end, the tip configured to receive and collect the OCT light therethrough. The OCT handheld device is configured to be removably draped around the tip, for use in the surgical procedure.

A method of using a sterilization wrap system including a permeable material having barrier properties and having a first surface and a second opposing surface, the exterior panel being substantially opaque or having a first level of translucence, and an interior panel including a permeable material having barrier properties and having a first surface and a second opposing surface, the interior panel having a level of translucence that is higher than the translucence of the exterior panel, the panels being joined together over at least a portion of their surfaces. Also disclosed is inspection of the sterilization wrap system for exterior panel breaches by looking for light passing through a panel facing the viewer.

The invention is generally directed to a sterile surgical drape designed to provide a sterile barrier with a self-contained, expandable sterile pocket. The sterile surgical drape includes a pocket sized and shaped to accommodate the C-arm of an X-ray machine. The pocket spans the width of the operative site and includes an elastic band along a top edge to ensure that the pocket does not drop below the sterile field when not in use. In this way, the pocket is maintained around the C-arm and the sterile field is preserved during use. The surgical drape can optionally include an adhesive antimicrobial strip configured with an elongated length. The surgical drape can further optionally include one or more pouches sized and shaped to retain surgical instruments or tools.

A container unit (6) is provided for storing an organ or body tissue, wherein the container unit is configured as an insert for a storage apparatus and wherein the container unit comprises: a container body (602) defining a storage region; an inlet port (632) for connection to a fluid supply system to receive persufflation fluid; an outlet port (634) for connection to a said organ or body tissue stored in the container body; and a fluid processing device (604) comprising an internal passageway (636) connecting the inlet port to the outlet port, wherein the fluid processing device is configured to process, e.g. cool and humidify, persufflation fluid flowing through the internal passageway from the inlet port to the outlet port. The present disclosure also relates to a storage apparatus, a kit of parts, and a method of preparing an apparatus to store and preserve an organ or body tissue.

An apparatus for helping to protect a patient's hair is provided. The apparatus includes a sheet configured to cover a patient's hair during an operation. A sealing member is provided on or joined to a leading end of the sheet. The sealing member is configured to be applied to a patient's skin adjacent to an operating field to create a seal between the operating field and the patient's hair. At least one anchoring member is joined to the sheet adjacent to the leading end of the sheet. The at least one anchoring member is configured to be attached to the patient's hair adjacent to the operating field to anchor the apparatus to the patient.

Generally, a system for use in a robotic surgical system may be used to determine an attachment state between a tool driver, sterile adapter, and surgical tool of the system. The system may include sensors used to generate attachment data corresponding to the attachment state. The attachment state may be used to control operation of the tool driver and surgical tool. In some variations, one or more of the attachment states may be visually output to an operator using one or more of the tool driver, sterile adapter, and surgical tool. In some variations, the tool driver and surgical tool may include electronic communication devices configured to be in close proximity when the surgical tool is attached to the sterile adapter and tool driver.

A drape connector system can be used to join different sections of drape material, such as different sections of compositionally dissimilar drape material. In some examples, a medical drape is formed that includes a first section of drape material, a second section of drape material, and the connector system. The connector system includes a receiving body defining a groove and a locking body insertable into the groove. A portion of the first section of drape material is positioned overlaying the groove, and a portion of the second section of drape material is also positioned overlaying the groove. The locking body is inserted into the groove thereby locking the portion of the first section of drape material and the portion of the second section of drape material in the groove.

An improved draping system with a drape and a lock device. The drape includes an area defined by a predetermined length and a predetermined width, as well as a selectively separable portion. The drape also has a first perforation, as well as a z-shaped fold over the perforation. The lock device may be a poly seal with a second perforation. The draping system is secured to an operating table to maintain sterility about that operating table. When ready for removal, the draping system is simply pulled in opposite directions. When this occurs, the second perforation breaks, which disengages the lock device. Upon further pulling, the z-shaped fold is unfolded. Further pulling still results in the second perforation breaking.