Abstract: The treatment of various sensitive organs with low energy acoustic shockwaves has been proposed. However, the prior art is lacking in guidance as to what constitutes an efficacious minimum dosage or a safe maximum dosage for various target organs and tissues. Through extensive experimentation with cultured cells, live animals, and animal disease models, the inventors of the present disclosure have determined safe and efficacious shockwave energetic dosage ranges for vital and sensitive organs, including the brain, pancreas, kidneys, liver, and spleen, as well as for skin and subcutaneous tissues, peripheral nerves, and skeletal muscles.

Abstract: Provided herein are improved methods for robust TCR+ cell depletion and production of populations of TCR? cells, which can be beneficial to minimize the GvHD risk in patients receiving allogeneic CAR T cell therapy. Provided herein are methods that increase the efficiency of depleting TCR+ cells from a population of cells in order to significantly reduce any residual levels of TCR+ cells present in cell populations in which expression of endogenous TCR has been reduced or eliminated. Associated kits and cell populations are also provided.

Abstract: The treatment of various sensitive organs with low energy acoustic shockwaves has been proposed. However, the prior art is lacking in guidance as to what constitutes an efficacious minimum dosage or a safe maximum dosage for various target organs and tissues. Through extensive experimentation with cultured cells, live animals, and animal disease models, the inventors of the present disclosure have determined safe and efficacious shockwave energetic dosage ranges for vital and sensitive organs, including the brain, pancreas, kidneys, liver, and spleen, as well as for skin and subcutaneous tissues, peripheral nerves, and skeletal muscles.

Abstract: The treatment of various sensitive organs with low energy acoustic shockwaves has been proposed. However, the prior art is lacking in guidance as to what constitutes an efficacious minimum dosage or a safe maximum dosage for various target organs and tissues. Through extensive experimentation with cultured cells, live animals, and animal disease models, the inventors of the present disclosure have determined safe and efficacious shockwave energetic dosage ranges for vital and sensitive organs, including the brain, pancreas, kidneys, liver, and spleen, as well as for skin and subcutaneous tissues, peripheral nerves, and skeletal muscles.

Abstract: The treatment of various sensitive organs with low energy acoustic shockwaves has been proposed. However, the prior art is lacking in guidance as to what constitutes an efficacious minimum dosage or a safe maximum dosage for various target organs and tissues. Through extensive experimentation with cultured cells, live animals, and animal disease models, the inventors of the present disclosure have determined safe and efficacious shockwave energetic dosage ranges for vital and sensitive organs, including the brain, pancreas, kidneys, liver, and spleen, as well as for skin and subcutaneous tissues, peripheral nerves, and skeletal muscles.