Surx, Inc.

Crux Biomedical, Inc.

Volcano Corporation

Verathon Inc.

Cardiovascular Technologies, Inc.

Solarant Medical, Inc.

Paul L Do

Garry L Carter

John Patrick Claude

Frank W Ingle

Robert J Laird

Brian J Mosel

Eric Johnson

Gilbert S Laroya

George A Morrison

David C Densow

Michael D Laufer

Jeremy Stigall

Russell A Houser

Loren L Roy

John Bower

Joseph Lauinger

The present invention relates generally to devices and methods for retrieving or manipulating objects within a lumen. More specifically, embodiments of the invention relate to devices and methods for retrieving or manipulating medical devices from a body lumen. One embodiment of the present invention provides a novel and improved retrieval snare and method of fabricating and using the same. The snare includes a snare wire, having a distal end and a proximal end, for use in the human anatomy, such as but not limited to blood vessels, pulmonary airways, reproductive anatomy, gastrointestinal anatomy, and organs such as the kidneys or lungs. The device enables a user to capture a foreign object located within the human anatomy, grasp said object in a controlled manner, and retrieve and remove said object from the human anatomy.

Retrieval snare device and method

Embodiments of the invention relate generally to devices and methods for providing filtration of debris within a body lumen. More particularly, embodiments of the invention related to devices and methods for providing distal protection to a medical procedure by filtration of debris generated by the medical procedure using filters having a frame with a slidable crossover point.

Distal protection systems and methods with pressure and ultrasound features

Distal protection filter

The present invention relates to wound closure devices, devices and systems for delivery, kits and methods therefor. The wound closure devices can achieve wound closure in lieu of compression and can be configured to be quickly deployable by an introducer or from outside the body.

Tissue closure devices, device and systems for delivery, kits and methods therefor

The invention provides improved methods for modifying collagenous tissues, particularly for treating urinary incontinence in a noninvasive manner. The methods typically include inserting a probe into a patient's urethra, transmitting electromagnetic energy from the probe to a collagneous target tissue, and cooling the tissue in the vicinity of the probe. The probe may include an expandable element at or near the distal end that is configured to expand within the patient's bladder. The expandable element may anchor the probe before or during treatment.

Noninvasive devices, methods, and systems for modifying tissues

The invention provides improved devices, methods, and systems for shrinking of collagenated tissues, particularly for treating urinary incontinence in a noninvasive manner by directing energy to a patient's own support tissues. This energy heats fascia and other collagenated support tissues, causing them to contract. The energy can be applied intermittently, often between a pair of large plate electrodes having cooled flat electrode surfaces, the electrodes optionally being supported by a clamp structure. Such cooled plate electrodes are capable of directing electrical energy through an intermediate tissue and into fascia while the cooled electrode surface prevents injury to the intermediate tissue, particularly where the electrode surfaces are cooled before, during, and after an intermittent heating cycle. Ideally, the plate electrode comprises an electrode array including discrete electrode surface segments so that the current flux can be varied to selectively target the fascia. Alternatively, chilled 'liquid electrodes' may direct current through a selected portion of the bladder (or other body cavity) while also cooling the bladder wall, an insulating gas can prevent heating of an alternative bladder portion and the adjacent tissues, and/or ultrasound transducers direct energy through an intermediate tissue and into fascia with little or no injury to the intermediate tissue. Cooled electrodes may be used to chill an intermediate engaged tissue so as to cause the maximum temperature difference between the target tissue and the intermediate tissue prior to initiating RF heating. This allows the dimensions of tissue reaching the treatment temperature to be controlled and/or minimized, the dimensions of protected intermediate tissue to be maximized, and the like.

Noninvasive devices, methods, and systems for shrinking of tissues

The invention provides improved devices, methods, and systems for shrinking of collagenated tissues, particularly for treating urinary incontinence in a noninvasive manner by directing energy to a patient's own support tissues. This energy heats fascia and other collagenated support tissues, causing them to contract. The energy can be applied intermittently, often between a pair of large plate electrodes having cooled flat electrode surfaces, the electrodes optionally being supported by a clamp structure. Such cooled plate electrodes are capable of directing electrical energy through an intermediate tissue and into fascia while the cooled electrode surface prevents injury to the intermediate tissue, particularly where the electrode surfaces are cooled before, during, and after an intermittent heating cycle. Ideally, the plate electrode comprises an electrode array including discrete electrode surface segments so that the current flux can be varied to selectively target the fascia. Alternatively, chilled &ldquo;liquid electrodes&rdquo; may direct current through a selected portion of the bladder (or other body cavity) while also cooling the bladder wall, an insulating gas can prevent heating of an alternative bladder portion and the adjacent tissues, and/or ultrasound transducers direct energy through an intermediate tissue and into fascia with little or no injury to the intermediate tissue. Cooled electrodes may be used to chill an intermediate engaged tissue so as to cause the maximum temperature difference between the target tissue and the intermediate tissue prior to initiating RF heating. This allows the dimensions of tissue reaching the treatment temperature to be controlled and/or minimized, the dimensions of protected intermediate tissue to be maximized, and the like.

The invention provides improved devices, methods, and systems for shrinking of collagenated tissues, particularly for treating urinary incontinence in a noninvasive manner by directing energy to a patient's own support tissues. The energy can be applied intermittently, often between a pair of large plate electrodes having cooled flat electrode surfaces, the electrodes optionally being supported by a clamp structure. Such cooled plate electrodes are capable of directing electrical energy through an intermediate tissue and into fascia while the cooled electrode surface prevents injury to the intermediate tissue, particularly where the electrode surfaces are cooled before, during, and after an intermittent heating cycle.

Noninvasive devices and methods for shrinking of tissues

Improved devices, methods, and systems for the surgical treatment of urinary incontinence generally enhance the support provided by the natural tissues of the pelvic floor without directly applying compressive pressure against the urethra. The invention provides probes for forming plications in the endopelvic fascia that are displaced laterally on either side of the midline. These probes can impose a predetermined level of trauma to the plicated tissues so as to promote the formation of adhesions. Adhesions can maintain the enhanced support provided by the plication after reabsorption of a temporary fastener (such as a reasborbable suture, staple, or the like). The plicating probe draws the tissue inward to provide a uniform plication within a predetermined size range.

Tuck and fold fascia shortening for incontinence

The invention provides improved devices, methods, and systems for shrinking of collagenous tissues, particularly for treating urinary incontinence in a noninvasive manner by directing energy to a patient's own support tissues. This energy heats fascia and other collagenous support tissues, causing them to contract. Pre-cooling and/or pre-heating may induce a temperature difference between the target tissue and the intermediate tissue prior to initiating RF heating. This allows the dimensions of tissue reaching the treatment temperature to be controlled and/or minimized, the dimensions of protected intermediate tissue to be maximized, and the like.

Improved devices, methods, and systems for the surgical treatment of urinary incontinence generally enhance the support provided by the natural tissues of the pelvic floor without directly applying compressive pressure against the urethra. The invention provides probes for forming plications in the endopelvic fascia that are displaced laterally on either side of the midline. These probes can impose a predetermined level of trauma to the plicated tissues so as to promote the formation of adhesions. Adhesions can maintain the enhanced support provided by the plication after reabsorption of a temporary fastener (such as a reabsorbable suture, staple, or the like). The plicating probe draws the tissue inward to provide a uniform plication within a predetermined size range.

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San Jose, CA, United States of America

Paul L Do