An apparatus and method is provided for healing and regeneration of live human and animal bodies and influencing interaction and intercommunication at the cellular level. The apparatus can include one or more environmental and/or body sensors. An electrical circuit can also be provided to produce a square or trapezoidal wave that is delivered to a transducer for application, preferably timed at specific frequencies Delta, Theta, Alpha, to Beta, based on information received from the one or more sensors. In certain embodiments, a DC power source can be provided which allows the apparatus to be portable. A wireless communication module can also be provided. An apparatus and method for structuring water is also disclosed.

The present disclosure relates to improved methods for the preparation and platelet products for administration to subjects in need thereof

This invention provides a method of sterilising an S-nitrosothiol, for example S-nitrosoglutathione, without reduction of purity by more than about 5.0% through degradation. The invention allows sterile S-nitrosothiol or a sterile pharmaceutical pre-composition comprising S-nitrosothiol, wherein the S-nitrosothiol is in dry solid form, to be produced. The sterile pharmaceutical pre-composition is mixed with one or more diluents, excipients, carriers, additional active agents, or any combination thereof, for example sterile saline, to prepare a pharmaceutical composition of S-nitrosothiol for use.

The present invention relates to an intravenous infusion dosage form of pemetrexed or its pharmaceutically acceptable salt, having long term stability.

The present invention pertains to an enzyme preparation obtained from e-beam irradiated animal tissue, such as porcine pancreas. The present invention also pertains to methods for making such enzyme preparations, pharmaceutical compositions comprising such enzymes preparations, and methods for using such pharmaceutical compositions and enzyme preparations.

The present invention pertains to an enzyme preparation obtained from e-beam irradiated animal tissue, such as porcine pancreas. The present invention also pertains to methods for making such enzyme preparations, pharmaceutical compositions comprising such enzymes preparations, and methods for using such pharmaceutical compositions and enzyme preparations.

The present invention pertains to an enzyme preparation obtained from e-beam irradiated animal tissue, such as porcine pancreas. The present invention also pertains to methods for making such enzyme preparations, pharmaceutical compositions comprising such enzymes preparations, and methods for using such pharmaceutical compositions and enzyme preparations.

Methods for modulating the release and content of extracellular vesicles from target cells using electrical stimulation are provided. Compositions comprising extracellular vesicles or extracts of extracellular vesicles and methods of administering the compositions to a subject are also provided.

A method of preparing sterile human placental allografts by providing a human placental tissue from a donor within 24 hours to 72 hours post-childbirth; removing any visible blood, blood clots, and/or blood components from the human placental tissue without scraping or scrubbing the human placental tissue to preserve structural integrity of the human placental tissue; washing the human placental tissue in an isotonic solution while maintaining the structural integrity of the human placental tissue; dehydrating the human placental tissue thereby forming the dehydrated human placental tissue; resizing the dehydrated human placental tissue into dehydrated human placental tissue portions having predetermined sizes; and sterilizing the dehydrated human placental tissue portions of step (e) thereby forming the sterile human placental allograft. Also disclosed is a sterile human placental allograft produced by the method.

A method of preparing sterile human placental allografts by providing a human placental tissue from a donor within 24 hours to 72 hours post-childbirth; removing any visible blood, blood clots, and/or blood components from the human placental tissue without scraping or scrubbing the human placental tissue to preserve structural integrity of the human placental tissue; washing the human placental tissue in an isotonic solution while maintaining the structural integrity of the human placental tissue; dehydrating the human placental tissue thereby forming the dehydrated human placental tissue; resizing the dehydrated human placental tissue into dehydrated human placental tissue portions having predetermined sizes; and sterilizing the dehydrated human placental tissue portions of step (e) thereby forming the sterile human placental allograft. Also disclosed is a sterile human placental allograft produced by the method.