Abstract: Provided herein are methods for the treatment of bladder dysfunction, including detrusor hyperreflexia and detrusor external sphincter dyssynergia, fecal incontinence, and/or sexual dysfunction in an individual via the use of stably expressed light-responsive opsin proteins capable of selective hyperpolarization or depolarization of the neural cells that innervate the muscles responsible for physiologic functioning of urinary bladder, external urinary sphincter, external anal sphincter, and the male and female genitalia.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for creating and using separable optical feedthroughs. These are especially useful in their at least semi-hermetic form when integrated with implantable photomedical devices. One embodiment is directed to a system for operatively coupling an optical output from a light source positioned inside of a sealed housing to an external optical fiber, comprising: a first optical fiber disposed adjacent to the light source and configured to receive at least a portion of the optical output; a second optical fiber operatively coupled to the first optical fiber and configured to capture at least a portion of an output from the first optical fiber; a primary seal operatively coupled to the housing between the light source and the second optical fiber that is at least partially transparent; and a secondary seal positioned between the second optical fiber and the environment.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: One embodiment is directed to a method for treating the nervous system of a patient, comprising: determining a desired nervous system functional modulation to be facilitated by sonogenetic intervention; selecting targeted neuroanatomy for achieving the desired functional outcome with sonogenetic intervention; and delivering an effective amount of polynucleotide comprising a sound-responsive opsin protein which is expressed in neurons of the targeted neuroanatomy, wherein delivering comprises systemically injecting the effective amount of polynucleotide and facilitating diffusive access to the targeted neuroanatomy using focused ultrasound energy.

Abstract: One embodiment is directed to a method for treating the nervous system of a patient, comprising: determining a desired nervous system functional modulation to be facilitated by optogenetic intervention; selecting targeted neuroanatomy for achieving the desired functional outcome with optogenetic intervention; and delivering an effective amount of polynucleotide comprising a light-responsive opsin protein which is expressed in neurons of the targeted neuroanatomy, and delivering an effective amount of immunosuppressant.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitve proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: One embodiment is directed to an implantable probe system for delivering acoustical energy to a targeted tissue portion of a patient, comprising: a plurality of substrate portions, each substrate portion comprising at least one acoustical emitter; a probe body portion having proximal and distal ends and being movably coupled to the plurality of substrates and configured to at least partially encapsulate the plurality of substrates; and a distal end portion coupled to the distal end of the probe body portion, the distal end portion comprising at least one guiding feature configured to redirect a path of at least one of the substrate portions as such substrate portion is extended through and past the distal end portion by moving the plurality of substrates relative to the probe body portion

Abstract: One embodiment is directed to a method for acoustically modulating activity of cells comprising a targeted tissue portion of a patient. An implantable probe system may be utilized for delivering acoustical energy to a targeted tissue portion of a patient, comprising a plurality of substrate portions, each substrate portion comprising at least one acoustical emitter; a probe body portion having proximal and distal ends and being movably coupled to the plurality of substrates and configured to at least partially encapsulate the plurality of substrates; and a distal end portion coupled to the distal end of the probe body portion, the distal end portion comprising at least one guiding feature configured to redirect a path of at least one of the substrate portions as such substrate portion is extended through and past the distal end portion by moving the plurality of substrates relative to the probe body portion.

Abstract: One embodiment is directed to a system for altering the function of a sensory unit that innervates a targeted tissue region in an animal, the sensory unit being configured to express a light-responsive protein, comprising a light delivery element configured to direct radiation to at least a portion of a targeted tissue structure; and a light source configured to provide light to the light delivery element; wherein the targeted tissue structure is illuminated transcutaneously with radiation such that a membrane potential of cells comprising the targeted tissue structure is modulated at least in part due to exposure of the light-responsive protein to the radiation.

Abstract: The present disclosure provides compositions and methods for controlling pain. The present disclosure provides methods for identifying agents that control pain.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for creating and using separable optical feedthroughs. These are especially useful in their at least semi-hermetic form when integrated with implantable photomedical devices. One embodiment is directed to a system for operatively coupling an optical output from a light source positioned inside of a sealed housing to an external optical fiber, comprising: a first optical fiber disposed adjacent to the light source and configured to receive at least a portion of the optical output; a second optical fiber operatively coupled to the first optical fiber and configured to capture at least a portion of an output from the first optical fiber; a primary seal operatively coupled to the housing between the light source and the second optical fiber that is at least partially transparent; and a secondary seal positioned between the second optical fiber and the environment.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.

Abstract: Configurations are described for utilizing light-activated proteins within cell membranes and subcellular regions to assist with medical treatment paradigms, such as hypertension treatment via anatomically specific and temporally precise modulation of renal plexus activity. The invention provides for proteins, nucleic acids, vectors and methods for genetically targeted expression of light-sensitive proteins to specific cells or defined cell populations. In particular the invention provides systems, devices, and methods for millisecond-timescale temporal control of certain cell activities using moderate light intensities, such as the generation or inhibition of electrical spikes in nerve cells and other excitable cells.