Light Sciences Corporation

Microsoft Technology Licensing, LLC

Light Sciences Oncology Inc.

Lights Sciences Oncology, Inc.

Light Science Corporation

James P Chen

Gary William Hall

Jason Evan Schleifer

Darrin Huston

Brian D Wilkerson

Mike McQuade

Garry K Tan

Dave Brown

Kevin Timothy Shields

A technique and mechanism to effect cross-pollination synchronization of PIM (personal information manager) data to multiple sources. Additionally, a novel feature of the subject invention is the ability to effect cross-pollination synchronization with any number of devices and sources in a network. The invention provides for a user to employ a mobile device or set of devices as a central repository for PIM data (e.g., calendar, contacts and tasks) synchronized from multiple sources (e.g., multiple PC's (personal computers), an exchange server). The invention provides for synchronization of PIM data from multiple types of server sources to multiple devices regardless of the synchronization protocol versions and different schemas.

Cross-pollination synchronization of data

The present invention is drawn to methods and compounds for transcutaneous photodynamic therapy ('PDT') of a target tissue or compositions in a mammalian subject, which includes administering to the subject a therapeutically effective amount of a photosensitizing agent or a photosensitizing agent delivery system or prodrug, where the photosensitizing agent or photosensitizing agent delivery system or prodrug selectively binds to the target tissue; and irradiating at least a portion of the subject with light at a wavelength absorbed by the photosensitizing agent or if prodrug, by a prodrug product thereof, where the light is provided by a light source, and where the irradiation is at low fluence rate that results in the activation of the photosensitizing agent or prodrug product. These methods of transcutaneous PDT are useful in the treatment of specifically selected target tissues, such as: vascular endothelial tissue; abnormal vascular wall of tumors; tumors of the head and neck; tumors of the gastrointestinal tract; tumors of the liver; tumors of the esophopharyngeal; tumors of the lung; lymphoid tissue; lesions in the vascular system; bone marrow and tissue related to autoimmune disease.

Noninvasive vascular therapy

The present invention is drawn to apparatus for transcutaneous photodynamic therapy ('PDT') of a target tissue or compositions in a mammalian subject, which includes a light source that is external to the subject and is selected from among one or a plurality of laser diodes; light emitting diodes; electroluminescent light source; incandescent light sources; cold cathode fluorescent light sources; organic polymer light sources; or inorganic light sources, where the light source is adapted to direct the light in a direction lengthwise and parallel to a vessel wall comprising the lesion.

The present invention is drawn to methods for photodynamic therapy (PDT) of a target cell, target tissue or target composition in a mammalian subject, using a therapeutically effective amount of a targeted substance, which is either a targeted photosensitizing agent, or a photosensitizing agent delivery system, or a targeted prodrug. This targeted substance preferably selectively binds to the target cell, target tissue or target composition. Light at a wavelength or waveband corresponding to that which is absorbed by the targeted substance is then administered. The light intensity is relatively low, but a high total fluence is employed to ensure the activation of the targeted photosensitizing agent or targeted prodrug product.

Photodynamic treatment of targeted cells

Methods for delivering light to a treatment site of a patient to administer a light therapy thereto are provided. A method includes steps of providing a portable power source, and a light source configured to provide light suitable for the light therapy for a period of at least two hours, and an optical fiber; positioning a distal portion of the optical fiber that is adapted to be disposed at the treatment site within a patient's body, where the light generated by the light source and conveyed by the optical fiber exits from the distal portion of the optical fiber; energizing the light source with the portable power supply; and administering the light treatment to the treatment site with the light source, wherein the patient is ambulatory without interruption of the light therapy during the treatment.

Ambulatory photodynamic therapy

The present invention is drawn to methods and compounds for photodynamic therapy (PDT) of a target tissue or compositions in a mammalian subject, using a light source that preferably transmits light to a treatment site transcutaneously. The method provides for administering to the subject a therapeutically effective amount of a targeted substance, which is either a targeted photosensitizing agent, or a photosensitizing agent delivery system, or a targeted prodrug. This targeted substance preferably selectively binds to the target tissue. Light at a wavelength or waveband corresponding to that which is absorbed by the targeted substance is then administered. The light intensity is relatively low, but a high total fluence is employed to ensure the activation of the targeted photosensitizing agent or targeted prodrug product. Transcutaneous PDT is useful in the treatment of specifically selected target tissues, such as vascular endothelial tissue, the abnormal vascular walls of tumors, solid tumors of the head and neck, tumors of the gastrointestinal tract, tumors of the liver, tumors of the breast, tumors of the prostate, tumors of the lung, nonsolid tumors, malignant cells of the hematopoietic and lymphoid tissue and other lesions in the vascular system or bone marrow, and tissue or cells related to autoimmune and inflammatory disease.

Transcutaneous photodynamic treatment of targeted cells

Targeted transcutaneous cancer therapy

A method and system of installing applications for a plurality of mobile devices from a storage source, wherein each mobile device is of a different type, includes storing on the storage source a plurality of applications. Each application is designed for a unique type of mobile device. The mobile device is connected to the storage source and the type of mobile device is detected. A selected application is then transferred to the mobile device.

System and method for managing application installation for a mobile device

A patient portable photodynamic therapy device securable to a patient includes a lightweight rechargeable battery and a cold cathode fluorescent (CCF) tube powered thereby. The CCF tube is coupled in light channeling relation to a proximal portion of a biocompatible optical fiber, which includes a distal portion with an optional diffuser that uniformly distributes light as it exits the distal portion. The distal end of the optical fiber is optionally provided with an anchoring balloon that can be inflated after the optical fiber is properly positioned at a treatment site within a patient's body. The balloon securely lodges the distal portion within the tissue at the treatment site, and is deflated to facilitate the removal of the optical fiber once the treatment is complete.

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Bellevue, WA, United States of America

James P Chen