A surgical instrument comprising an end effector, a staple firing drive, and a motor control system is disclosed. The end effector includes a replaceable unspent staple cartridge comprising staples. The staple firing drive comprises an electric motor circuit including an electric motor. The staple firing drive further comprises a firing member movable through a firing stroke by the electric motor. The firing member comprises a tissue cutting knife. The staples are deployable from the staple cartridge based on movement of the firing member through the firing stroke. The motor control system comprises a current sensor and a position sensor. The motor control system is configured to change the operation of the electric motor based on an input from the current sensor. The motor control system is configured to change the operation of the electric motor based on an input from the position sensor.

A packaged antimicrobial suture. The packaged antimicrobial suture includes an inner package having a source of antimicrobial agent, the source of antimicrobial agent comprising a plurality of patches, each patch having a pair of antimicrobial material reservoirs; at least one suture positioned within the inner package, the at least one suture comprising one or more surfaces; and an outer package having an inner surface, the outer package having the inner package positioned within; wherein the at least one suture, the inner package and the inner surface of the outer package are subjected to time, temperature and pressure conditions sufficient to transfer an effective amount of the antimicrobial agent from the antimicrobial agent source to the at least one suture and the inner package, thereby substantially inhibiting bacterial colonization on the at least one suture and the inner package. A method of making a packaged antimicrobial suture is also provided.

A packaged antimicrobial suture. The packaged antimicrobial suture includes an inner package having a source of antimicrobial agent, the source of antimicrobial agent comprising a plurality of patches, each patch having a pair of antimicrobial material reservoirs; at least one suture positioned within the inner package, the at least one suture comprising one or more surfaces; and an outer package having an inner surface, the outer package having the inner package positioned within; wherein the at least one suture, the inner package and the inner surface of the outer package are subjected to time, temperature and pressure conditions sufficient to transfer an effective amount of the antimicrobial agent from the antimicrobial agent source to the at least one suture and the inner package, thereby substantially inhibiting bacterial colonization on the at least one suture and the inner package. A method of making a packaged antimicrobial suture is also provided.

The invention concerns a flat package for a non sterile protective pouch (16) receiving a sterile surgical mesh; the package includes: an external envelope (2) including a front panel (3) and a complementary back panel (4), the inner face of the front panel (3) and the inner face of the back panel (4) being bonded respectively with a front layer (17) and with a back layer (18) of an internal envelope (15) made of a moisture-impervious material, the front panel (3) and the back panel (4) being jointed along the contours of the external envelope and, the package having an opening end comprising two tearable portions (8) configured to separate the front panel (3) upon which the front layer (17) of the internal envelope (15) is bonded from the back panel (4) upon which the back layer (18) of the internal envelope (15) is attached.

The invention concerns a flat package for a non sterile protective pouch (16) receiving a sterile surgical mesh; the package includes: an external envelope (2) including a front panel (3) and a complementary back panel (4), the inner face of the front panel (3) and the inner face of the back panel (4) being bonded respectively with a front layer (17) and with a back layer (18) of an internal envelope (15) made of a moisture-impervious material, the front panel (3) and the back panel (4) being jointed along the contours of the external envelope and, the package having an opening end comprising two tearable portions (8) configured to separate the front panel (3) upon which the front layer (17) of the internal envelope (15) is bonded from the back panel (4) upon which the back layer (18) of the internal envelope (15) is attached.

The present disclosure relates to a sterilization packaging method for a body-attachable biometric monitoring device. Provided is a sterilization packaging method for a body-attachable biometric monitoring device, the method in which a sterilization packaging process can be performed in a convenient and simple manner, further contamination which can occur during a sterilization process is prevented, damages due to moisture and the like after the packaging is complete are also prevented and thus complete sterilization packaging can be performed, in order to separately perform a sterilization packaging step in two steps, primary packaging is performed for a sterilizable state and then sterilization is performed, secondary packaging is performed to maintain airtightness for a primary packaged article which has been sterilized and thus penetration by an external contaminant and the like during the sterilization and packaging processes is prevented to prevent damages to a biometric monitoring device, a separate adsorbent is positioned outside the primary packaged article and then the secondary packaging is performed and thus functional degradation of the adsorbent during the sterilization process is prevented to enable inner packaging of the adsorbent in an excellent functional state, and a moisture removal function can be performed stably to enable a complete sterilization packaging.

The disclosed apparatus, systems and methods relate to preparation, modified atmosphere and high pressure pasteurization steps for treatment of retail fresh protein preparations. Protein is prepared and subsequently packaged in a modified atmosphere lacking significant amounts of oxygen and then exposed to high-pressure pasteurization. During preparation the protein may be exposed to aqueous ozone further reducing the microbial load, extending shelf-life, and increasing product safety.

The disclosed apparatus, systems and methods relate to preparation, modified atmosphere and high pressure pasteurization steps for treatment of retail fresh protein preparations. Protein is prepared and subsequently packaged in a modified atmosphere lacking significant amounts of oxygen and then exposed to high-pressure pasteurization. During preparation the protein may be exposed to aqueous ozone further reducing the microbial load, extending shelf-life, and increasing product safety.

A sterilization unit for sterilizing a product can include a body having an internal volume for receiving the product to be sterilized, and comprising at least one opening through which product can be introduced and/or withdrawn from the internal volume; a gas inlet in fluid communication with the internal volume for introducing one or more of an inert gas and a sterilizing gas into the internal volume during sterilization; a screen disposed in the gas inlet through which the one or more of the inert gas and the sterilizing gas must pass before entering into the internal volume; and a pressure release valve. The body can be capable of being pressurized to a pressure of 10 atm or more.

A sterilization unit for sterilizing a product can include a body having an internal volume for receiving the product to be sterilized, and comprising at least one opening through which product can be introduced and/or withdrawn from the internal volume; a gas inlet in fluid communication with the internal volume for introducing one or more of an inert gas and a sterilizing gas into the internal volume during sterilization; a screen disposed in the gas inlet through which the one or more of the inert gas and the sterilizing gas must pass before entering into the internal volume; and a pressure release valve. The body can be capable of being pressurized to a pressure of 10 atm or more.