A system and method for treating anorectal and/or genitourinary dysfunction includes implanting, in a minimally invasive manner, an electro-medical device for stimulation of two or more anatomical or histological structures of the anorectal region and/or genitourinary region. Electrodes operably connected to the device are positioned proximate the target anatomical or histological structures. The device provides either the same or different stimulation algorithms to each anatomical or histological structure, which may be the same or different. The varied stimulation parameters, such as pulse width, pulse amplitude, and pulse frequency, are defined such that after an application of the electrical pulses, an abdominal leak pressure, an abdominal leak volume, or a urine volume increases or a number of incontinent episodes or a mean incontinence volume per episode decreases relative to said parameters prior to the application of the electrical pulses.

An apparatus for the treatment of urinary incontinence includes a balloon configured for movement between an inflated state and a deflated state, and the balloon includes bellows. An electrode is coupled to an outer surface of the balloon, and is configured to transmit an electrical pulse to cause a contraction of a muscle in communication with the electrode. A control device is configured to be operable by a user to cause the balloon to selectively move between the inflated state and the deflated state and to cause the electrode to transmit the electrical pulse. The bellows and the electrode are configured to cooperate to maintain the structural integrity of the balloon. The bellows and the electrode are further configured to cooperate to cause the balloon to inflate in a radially non-uniform manner.

In an aspect of the present disclosure, a system and method for controlling uterine contractions is disclosed including receiving data from at least one sensor by a wireless apparatus inserted into the patient's vagina adjacent the cervix. The data includes an indication that a contraction of the uterus is imminent. The method further includes in response to receiving the data, causing a generator circuit of the wireless apparatus to supply electrical energy to an energy applicator of the wireless apparatus that is configured to apply the supplied electrical energy to the uterus of the patient via the cervix of the patient to control contractions of the patient's uterus.

A system and method for treating anorectal and/or genitourinary dysfunction includes implanting, in a minimally invasive manner, an electro-medical device for stimulation of two or more anatomical or histological structures of the anorectal region and/or genitourinary region. Electrodes operably connected to the device are positioned proximate the target anatomical or histological structures. The device provides either the same or different stimulation algorithms to each anatomical or histological structure, which may be the same or different. The varied stimulation parameters, such as pulse width, pulse amplitude, and pulse frequency, are defined such that after an application of the electrical pulses, an abdominal leak pressure, an abdominal leak volume, or a urine volume increases or a number of incontinent episodes or a mean incontinence volume per episode decreases relative to said parameters prior to the application of the electrical pulses.

Methods for treating urinary stress incontinence by non-invasively delivering energy to one or more submucosal regions of vaginal tissue to induce remodeling within the vaginal tissue are provided. In some embodiments, the energy delivery results in heating of the target tissue to a temperature that ranges from about 38 C. to about 46 C. In some embodiments, the subject methods involve cooling a mucosal epithelial layer over the vaginal tissue. In some embodiments, a reverse thermal gradient is produced as the mucosal epithelium is cooled while energy is delivered to the underlying vaginal tissue.

A method for treating urinary incontinence is provided. The method includes providing a device having an expandable portion having an outer surface, a first electrode, and a second electrode, the first and second electrodes coupled to the outer surface of the expandable portion and configured to cause a contraction of a muscle in communication with the electrodes. The method further includes causing the expandable portion to inflate such that the first and second electrodes contact vaginal walls and causing a contraction of a muscle in communication with the electrode.

The present invention relates to an apparatus for treating a sexual dysfunctional female patient. In the apparatus, there is provided at least one implantable stimulation for stimulating at least part of the sexually responsive tissue of the vulva or the wall or the vagina of the patient by movement of the stimulation device and contact between the stimulation device and at least one area of the sexually responsive tissue of the vulva or the wall of the vagina. There is further provided an energy-transforming device, a control unit for controlling the stimulation device and an energy storage device for receiving energy from the energy-transforming device. The control unit is further configured to determine a current state of the energy storage device.

An intravaginal electrical stimulation device for treating pelvic pain in a female patient includes, in one embodiment, a set of intravaginal components comprising a frame, at least one pair of paracervical electrodes, an intravaginal capsule, a socket in the proximal end of the intravaginal capsule, an electrode plug that plugs into the socket, and connecting wires that electrically couple the electrode plug to the paracervical electrodes. The intravaginal components are designed to inserted into the patient's vagina so that one or more electrodes are in direct contact with the vaginal epithelium in the lateral vaginal fornices. In some embodiments, a cutaneous electrode may be included to be attached to the skin of the female patient. A microprocessor and an electrical stimulation generator are operable to cause low-voltage electrical current to flow through the intravaginal electrodes, the cutaneous electrode, or both, to create one or more electrical fields that neuromodulate the intrapelvic nerves of the patient. An external controller, which communicates with the intravaginal components over a wireless data communications channel, sends instructions to and receives status updates from the microprocessor inside the intravaginal capsule. In some embodiments, the electrical stimulation generator is located inside an external electrical stimulator generator (EESG) worn outside the body, instead of being located in an intravaginally worn intravaginal capsule, and the EESG is electrically coupled to the intravaginal components via one or more connecting wires that pass through the orifice of the female patient's vagina.

In methods and devices for treating a body canal or cavity, an internal applicator has an insertable part or section for insertion into the body canal or cavity (e.g. vagina or anal canal) and non-insertable part which may be detachable from a handle or second part of the device. The insertable part may include a plurality of energy delivery elements, optionally spaced apart in an array. During treatment the insertable part is positioned into or onto the body canal or cavity. The treatment may then proceed without additional movement of the insertable part. The energy delivery elements may be activated in predetermined order.

A body orifice remodeling device includes a cylindrical handpiece having a defined length which is adapted to be inserted into the body orifice and an elongated monopolar electrode mounted outside on the circumference of the cylindrical handpiece and extending substantially along the length of the handpiece. A source of radio frequency (RF) energy in the handpiece is configured to generate RF energy to the elongated monopolar electrode; and a source of electromagnetic stimulation energy (EMagS) in the handpiece is configured to generate (EMagS) energy.