Abstract: A method of improving a neurodegenerative or cognitive disorder in a human patient suffering therefrom is provided by determining a target site of the human patient's brain that is affected by the neurodegenerative disorder or cognitive disorder and providing a therapy to the human patient. The therapy includes applying a low intensity focused ultrasound (LiFUS) sonication via an ultrasound delivery device to the target site based on an imaging parameter, a microbubble cavitation; an optical parameter, a bodily fluid parameter, or a physiological or anatomical parameter of the human patient's brain. A therapeutic agent is introduced to the target site before, after or during application of the LiFUS sonication.

Abstract: Systems and methods are provided for generating a value representing one of a risk and a progression of a cognitive disorder. The method includes acquiring a first image, representing a brain of a patient, from a first imaging system and acquiring a second image, representing one of a retina, an optic nerve, and a vasculature associated with one of the optic nerve and the retina of the patient, from a second imaging system. A representation of each of the first image and the second image are provided to a machine learning model. The value is generated at the machine learning model from the representation of the first image and the representation of the second image, and the patient is assigned to one of a plurality of intervention classes according to the generated value. An intervention is provided to the patient according to the assigned intervention class.

Abstract: A method of improving a cognitive disorder in a patient suffering therefrom is provided. The method includes diagnosing the patient with the cognitive disorder and applying a neuromodulation treatment, such as focused ultrasound, to a pulvinar nucleus of the patient. The method can include acquiring a clinical parameter associated with the patient and applying the neuromodulation treatment or adjusting application of the neuromodulation treatment to the pulvinar nucleus of the patient based on the clinical parameter.

Abstract: A method of improving a neurodegenerative or cognitive disorder in a human patient suffering therefrom is provided by determining a target site of the human patient's brain that is affected by the neurodegenerative disorder or cognitive disorder and providing a therapy to the human patient. The therapy includes applying a low intensity focused ultrasound (LiFUS) sonication via an ultrasound delivery device to the target site based on an imaging parameter, a microbubble cavitation; an optical parameter, a bodily fluid parameter, or a physiological or anatomical parameter of the human patient's brain. A therapeutic agent is introduced to the target site before, after or during application of the LiFUS sonication.

Abstract: A method of improving a neurodegenerative or cognitive disorder in a human patient suffering therefrom is provided by determining a target site of the human patient's brain that is affected by the neurodegenerative disorder or cognitive disorder and providing a therapy to the human patient. The therapy includes applying a low intensity focused ultrasound (LiFUS) sonication via an ultrasound delivery device to the target site based on an imaging parameter, a microbubble cavitation; an optical parameter, a bodily fluid parameter, or a physiological or anatomical parameter of the human patient's brain. A therapeutic agent is introduced to the target site before, after or during application of the LiFUS sonication.

Abstract: Methods of treating acute heart failure in a patient in need thereof. Methods include inserting a therapy delivery device into a pulmonary artery of the patient and applying a therapy signal to autonomic cardiopulmonary fibers surrounding the pulmonary artery. The therapy signal affects heart contractility more than heart rate. Specifically, the application of the therapy signal increases heart contractility and treats the acute heart failure in the patient. The therapy signal can include electrical or chemical modulation.

Abstract: A method of improving a neurodegenerative or cognitive disorder in a human patient suffering therefrom is provided by determining a target site of the human patient's brain that is affected by the neurodegenerative disorder or cognitive disorder and providing a therapy to the human patient. The therapy includes applying a low intensity focused ultrasound (LiFUS) sonication via an ultrasound delivery device to the target site based on an imaging parameter, a microbubble cavitation; an optical parameter, a bodily fluid parameter, or a physiological or anatomical parameter of the human patient's brain. A therapeutic agent is introduced to the target site before, after or during application of the LiFUS sonication.

Abstract: A method of improving a neurodegenerative or cognitive disorder in a human patient suffering therefrom is provided by determining a target site of the human patient's brain that is affected by the neurodegenerative disorder or cognitive disorder and providing a therapy to the human patient. The therapy includes applying a low intensity focused ultrasound (LiFUS) sonication via an ultrasound delivery device to the target site based on an imaging parameter, a microbubble cavitation; an optical parameter, a bodily fluid parameter, or a physiological or anatomical parameter of the human patient's brain. A therapeutic agent is introduced to the target site before, after or during application of the LiFUS sonication.

Abstract: Methods of improving ARDS by regulating a stellate ganglion is provided herein. Methods of improving a hypercoagulation state are also provided by regulating the sympathetic nervous system.

Abstract: Methods of treating acute heart failure in a patient in need thereof. Methods include inserting a therapy delivery device into a pulmonary artery of the patient and applying a therapy signal to autonomic cardiopulmonary fibers surrounding the pulmonary artery. The therapy signal affects heart contractility more than heart rate. Specifically, the application of the therapy signal increases heart contractility and treats the acute heart failure in the patient. The therapy signal can include electrical or chemical modulation.

Abstract: Methods of treating acute heart failure in a patient in need thereof. Methods include inserting a therapy delivery device into a pulmonary artery of the patient and applying a therapy signal to autonomic cardiopulmonary fibers surrounding the pulmonary artery. The therapy signal affects heart contractility more than heart rate. Specifically, the application of the therapy signal increases heart contractility and treats the acute heart failure in the patient. The therapy signal can include electrical or chemical modulation.

Abstract: Methods for improving an inflammatory disorder in a subject are provided. Methods include positioning a therapy delivery device on a neural target site that contributes to immune activity of the subject. The therapy delivery device is activated to deliver a therapy signal to the neural target site to improve the subject's inflammatory disorder.

Abstract: One aspect of the present disclosure relates to a therapy delivery device for treating an obstetric or gynecological disorder other than urinary incontinence in a subject. The therapy delivery device can include a housing, at least one electrode, and a power source. The housing can be configured for implantation in a reproductive system of the subject. The at least one electrode can be connected to the housing and be configured to deliver an electrical signal to an autonomic nervous system nerve target. The power source can be in electrical communication with the at least one electrode.

Abstract: One aspect of the present disclosure relates to a closed-loop therapy system for treating autonomic instability or a medical condition associated therewith in a subject. The therapy delivery system can include a sensing component, a delivery component, and a controller. The sensing component can be configured to detect at least one physiological parameter associated with autonomic instability or a medical condition associated therewith. The delivery component can be configured for implantation on or about an autonomic nervous tissue target or a spinal nervous tissue target. The controller can be configured to automatically coordinate operation of the sensing and delivery components. The controller can also be configured to deliver an electrical signal to the delivery component to modulate activity at the autonomic nervous tissue target or a spinal nervous tissue target and effectively treat autonomic instability or a medical condition associated therewith.

Abstract: One aspect of the present disclosure relates to a closed loop therapy system for treating post-traumatic stress disorder (PTSD) in a subject. The therapy delivery system can include a sensing component, a delivery component, and a controller. The sensing can be configured to detect at least one physiological parameter associated with PTSD. The delivery component can be configured for implantation on or about a pre-determined spinal simulation site. The pre-determined spinal stimulation site can include a spinal cord segment, or spinal nervous tissue associated therewith, other than a C1-C3 spinal cord segment or spinal nervous tissue associated therewith. The controller can be configured to automatically coordinate operation of the sensing and delivery components. The controller can also be configured to deliver an electrical signal to the delivery component to modulate activity at the pre-determined spinal stimulation site to effectively treat PTSD in the subject.

Abstract: One aspect of the present disclosure relates to a closed-loop therapy system for treating post-traumatic stress disorder (PTSD) in a subject. The therapy delivery system can include a sensing component, a delivery component, and a controller. The sensing component can be configured to detect at least one physiological parameter associated with PTSD. The delivery component can be configured for implantation on or about a ganglion of the sympathetic nervous system (SNS). The controller can be configured to automatically coordinate operation of the sensing and delivery components. The controller can also be configured to deliver an electrical signal to the delivery component so that activity of the ganglion of the SNS is substantially blocked without enhancing a symptom of PTSD.

Abstract: One aspect of the present disclosure relates to a therapy delivery device for treating an obstetric or gynecological disorder other than urinary incontinence in a subject. The therapy delivery device can include a housing, at least one electrode, and a power source. The housing can be configured for implantation in a reproductive system of the subject. The at least one electrode can be connected to the housing and be configured to deliver an electrical signal to an autonomic nervous system nerve target. The power source can be in electrical communication with the at least one electrode.

Abstract: Methods of treating acute heart failure in a patient in need thereof. Methods include inserting a therapy delivery device into a pulmonary artery of the patient and applying a therapy signal to autonomic cardiopulmonary fibers surrounding the pulmonary artery. The therapy signal affects heart contractility more than heart rate. Specifically, the application of the therapy signal increases heart contractility and treats the acute heart failure in the patient. The therapy signal can include electrical or chemical modulation.

Abstract: Methods of treating acute heart failure in a patient in need thereof. Methods include inserting a therapy delivery device into a pulmonary artery of the patient and applying a therapy signal to autonomic cardiopulmonary fibers surrounding the pulmonary artery. The therapy signal affects heart contractility more than heart rate. Specifically, the application of the therapy signal increases heart contractility and treats the acute heart failure in the patient. The therapy signal can include electrical or chemical modulation.

Abstract: One aspect of the present disclosure includes a method for treating chronic or refractory rhinitis in a subject. One step of the method includes implanting a therapy delivery system in the subject so that at least one therapy delivery component of the system is positioned substantially adjacent a target location where modulation of the autonomic nervous system (ANS) is effective to treat chronic or refractory rhinitis. The therapy delivery component includes at least one electrode configured to deliver electric current to the target location. Next, electric current is delivered to the at least one electrode to effect a change in the ANS.