Abstract:
A protective therapy system for biological tissues or fluids includes applying a pulsed energy source to a target tissue or a target fluid having a chronic progressive disease or a risk of having a chronic progressive disease to therapeutically or prophylactically treat the target tissue or target fluid. A pulsed energy source having selected energy parameters may be applied to a brain of an individual who has Alzheimer's or other neurodegenerative disease or is at risk of developing such a neurodegenerative disease so as to prevent or treat the neurodegenerative disease.
Abstract:
A system and process for safely providing retinal phototherapy includes generating first and second light beams of a different wavelength. The first and second light beams are applied to a retinal pigment epithelium (RPE) (24) and choroid (26) of an eye (10). The amount of light reflected from the eye from the first light beam and the second light beam is measured, such as using a reflectometer (110). A level or concentration of the melanin within the eye is calculated using the measured amount of light reflected from the eye from the first and second light beams. When the content or density of melanin in the RPE exceeds a predetermined amount, one or more treatment parameters of the retinal phototherapy is adjusted.
Abstract:
A process for safely providing retinal phototherapy includes generating first and second light beams of a different wavelength. The first and second light beams are applied to a retinal pigment epithelium (RPE) and choroid of an eye The amount of light reflected from the eye from the first light beam and the second light beam is measured, such as using a reflectometer. A level or concentration of the melanin within the eye is calculated using the measured amount of light reflected from the eye from the first and second light beams. When the content or density of melanin in the RPE exceeds a predetermined amount, one or more treatment parameters of the retinal phototherapy is adjusted.
Abstract:
A process for heat treating biological tissue includes applying a pulsed energy to a first treatment area of a target tissue to create a therapeutic effect to the target tissue without destroying or permanently damaging the target tissue. After a predetermined interval of time, within a single treatment session, the pulsed energy is reapplied to the first treatment area. During the interval of time between pulsed energy applications to the first treatment area, the pulsed energy is applied to a second treatment area of the target tissue that is spaced apart from the first treatment area. The pulsed energy is repeatedly applied to each of the areas to be treated until a predetermined number of applications to each area to be treated has been achieved.
Abstract:
At least one pulsed light beam is applied to eye tissue to raise the temperature of the eye tissue to photostimulate the tissue. The at least one light beam has parameters of wavelength, duty cycle, power and pulse train duration selected to achieve a therapeutic or prophylactic effect while not permanently damaging the eye tissue. The eye tissue photostimulation improves ocular health and function and slows or prevents disorders associated with a normally aging eye.
Abstract:
A process for heat treating biological tissue includes generating treatment radiation having a predetermined wavelength and average power. The treatment radiation is applied to biological tissue, such as retinal tissue, such that at least one treatment spot is formed on the biological tissue and the biological tissue is heat stimulated sufficiently to create a therapeutic effect without destroying the tissue.
Abstract:
A process for heat treating biological tissue includes repeatedly applying a pulsed energy to a target tissue over a period of time so as to controllably raise a temperature of the target tissue to create a therapeutic effect to the target tissue without destroying or permanently damaging the target tissue. After the first treatment is concluded the application of the pulsed energy to the target tissue is halted for an interval of time. Within a single treatment session a second treatment is performed on the target tissue after the interval of time by repeatedly reapplying the pulsed energy to the target tissue so as to controllably raise the temperature of the target tissue to therapeutically treat the target tissue without destroying or permanently damaging the target tissue.
Abstract:
A process for performing retinal phototherapy or photostimulation includes generating a laser light that creates a therapeutic effect to retinal and/or foveal tissues exposed to the laser light without destroying or permanently damaging the retinal or foveal tissue. The laser light is applied to a first treatment area of the retina. After a predetermined interval of time, within a single treatment session, the laser light is reapplied to the first treatment area of the retina. During the interval of time between the laser light applications to the first treatment area, the laser light is applied to one or more additional areas of the retina that is spaced apart from the first treatment area and one another. The laser light is repeatedly applied to each of the areas to be treated until a predetermined number of laser light applications to each area to be treated has been achieved.
Abstract:
A process for heat treating biological tissue includes providing a plurality of energy emitters formed into an array. Treatment energy is generated from the plurality of emitters and applied to target tissue. The treatment energy has energy and application parameters selected so as to raise the target tissue temperature sufficiently to create a therapeutic effect while maintaining an average temperature of the target tissue over several minutes at or below a predetermined temperature so as not to destroy or permanently damage the target tissue.
Abstract:
Providing neuroprotective therapy for glaucoma includes generating a micropulsed laser light beam having parameters and characteristics, including pulse length, power, and duty cycle, selected to create a therapeutic effect with no visible laser lesions or tissue damage to the retina. The laser light beam is applied to retinal and/or foveal tissue of an eye having glaucoma or a risk of glaucoma to create a therapeutic effect to the retinal and/or foveal tissue exposed to the laser light beam without destroying or permanently damaging the retinal and/or foveal tissue and improve function or condition of an optic nerve and/or retinal ganglion cells of the eye.