Ventus Medical Limited

Nine Medical, Inc.

Theravent, Inc.

Other

Ryan Kendall Pierce

Rajiv Doshi

Bryan E Loomas

Benjamin Kahn Cline

Arthur G Sandoval

Jeffrey William Servaites

Robert Andrew Howard

Motohide Hatanaka

Arthur E Ferdinand

Matthew Durack

Elliot Sather

Sandrine Lebas

Jonathan P Summers

Toru Mino

Ronald G French

Daniel Francis Kennedy

Frank Wang

Benjamin K Cline

Casey D Johnsen

Michael Schoof

Jeffrey W Servaites

Methods and devices to control movement of microorganisms, sperm or viruses within a female reproductive system, including methods and devices for preventing infection or pregnancy. Devices may include a cervical barrier that is configured to allow biological fluids to exit the uterus and cervical canal while preventing the ascension of microorganisms, sperm or viruses into the cervical canal and uterus.

Methods and devices to prevent premature birth, stillbirth, miscarriage, infection, or pregnancy

Methods and devices to affect types, proportion, quantity, distribution, or proliferation of microorganisms within a female reproductive system.

Methods and devices to prevent premature birth

Described herein are passive nasal respiratory devices, in particular, passive nasal respiratory devices configured to achieve positive end-expiratory pressure (PEEP) in a subject wearing the device. PEEP devices may have a threshold pressure for opening during expiration. These devices may include a flap valve that opens on inhalation nested with a spring valve that opens when exhalation pressure exceeds a predetermined threshold. The device may be configured to be comfortably worn by a sleeping subject.

Passive nasal peep devices

Devices and methods described herein may, among other uses, favorably cause the activation and/or deactivation of vascular baroreceptors in order to achieve a desired impact on a physiological condition, such as baroreflex-regulated conditions, hypertension, hypotension, nervous system disorders, metabolic disorders, cardiovascular disease, heart failure, cardiac arrhythmia, renal disease, respiratory disease, diabetes, and insulin resistance. The devices and methods may be used in concert with each other and/or other treatments, medications, interventions, or behavioral regimens. They may also be used in concert with devices and methods that perform or assist with assessing or measuring a mammal's blood pressure assessing, measuring, or predicting the impact of the described methods and devices on the patient's condition (including blood pressure), and/or protecting the surrounding anatomy from adverse effects.

Devices and methods for treating cardiovascular and metabolic disease

Kindling splitter

Devices for altering the flow of air in a respiratory cavity such as the nostrils of the nose. These methods and devices may be useful for affecting a physiologic benefit in patients suffering from a variety of medical disorders, including snoring and sleep apnea. The devices are typically removable devices that may be placed in both nostrils to increase resistance to airflow within the respiratory cavity. Resistance to expiration may be selectively increased relative to inspiration. The nasal devices may also increases patency of the nares. Any of these devices may be configured to achieve positive end-expiratory pressure (PEEP) in a subject wearing the device.

Nasal respiratory devices

Described herein are nasal respiratory devices, in particular, nasal respiratory devices configured to achieve positive end-expiratory pressure (PEEP) in a subject wearing the device. PEEP devices may have a threshold pressure for opening during expiration. In some variations, these devices have a threshold pressure for closing during expiration.

Nasal respiratory devices for positive end-expiratory pressure

Described herein are nasal devices. In particular, layered nasal respiratory devices are described. Layered nasal device may include a layered airflow resistor that is configured to resist airflow in a first direction more than airflow in a second direction and that includes a flap valve adjacent to a flap valve limiting layer and an adhesive holdfast layer that is configured to secure the layered airflow resistor in communication with the subject's nasal cavity. Methods of using and methods of assembling layered nasal device are also described.

Layered nasal devices

Whole-nose nasal respiratory devices and methods of making and using whole-nose nasal respiratory devices are described and illustrated herein. These devices are typically configured to be adhesively secured to a subject so that they engage both of the subject's nostrils and allow airflow from both nostrils to communicate with an airflow resistor. The airflow resistor is configured so that it inhibits exhalation through the nostrils more than it inhibits inhalation through the nostrils.

Adhesive nasal respiratory devices

Described herein are adhesive nasal devices. In particular, the adhesive nasal respiratory devices described herein are configured to be worn in communication with a subject's nasal cavity and may include a rim body having a passageway therethrough, an airflow resistor in communication with the passageway of the rim body, and a flexible, adhesive holdfast layer extending outward from the periphery of the rim body. The rim body region may be formed from multiple parts (e.g., a first and a second rim body region), and the airflow resistor may be secured between the parts forming the rim body. Methods of manufacturing and assembling these adhesive nasal devices are also described.

Growing community of inventors

San Francisco, CA, United States of America

Ryan Kendall Pierce