Abstract:
A full-body non-invasive laser scanner for mapping or measuring a patient's body and for treating a patient's body with laser energy comprises a patient support, one or more laser devices, a laser guidance system, a control center, and optionally feedback sensors. The patient support aids in maintaining body alignment during treatment, and the laser devices are moveably positioned on a laser guidance system such that they can be driven about a stationary patient. To map and contour a patient's body, the patient aligns himself on the patient support. With the control center, an operator chooses whether to map, contour, or map and contour the patient's body either manually or according to preprogrammed treatment protocols. The carriage assembly translates and the laser devices apply laser energy to the surfaces of the patient's body according to the chosen protocol. Feedback sensors provide data for mapping the contours of the patient's body.
Abstract:
A stand-alone laser device that provides low level laser therapy using one or more laser sources. The laser sources are attached to one or more arms which can be positioned to cause the laser light to impinge on a desired area of a patient's body. A scanning apparatus is attached to the arms which comprise structures that cooperate to cause an optical element to be able to simultaneously rotate about a central axis and move in a linear motion along that axis to achieve any desired scan pattern. Laser light of different pulse widths, different beam shapes and different scan patterns can be applied externally to a patient's body. In the preferred embodiment, red light having a wavelength of about 635 nm is used to stimulate hair growth on a patient's scalp
Abstract:
A device for imparting a combination of therapies to a user's body or body parts has a first battery-powered array submerged into a liquid contained in a first reservoir and a second battery-powered array submerged into a liquid contained in a second reservoir. Each array has one or more degradable electrodes that release ions into the liquid in the reservoir. The electrodes can be copper, zinc, steel, silver, nickel, or a combination thereof. The solution in the reservoir may contain positively or negatively charged medicament ions. During a therapy session, the device is operated in one or both of an electrolysis mode and an iontophoresis mode. Direct current is applied to one or more of the electrodes depending on the mode selected and other session parameters. The device uses a current and voltage regulator to deliver a regulated amount of current through the arrays regardless of the conductivity of the liquid, and electronic circuitry is used to control the duration, polarity, electrode choice, and intensity of the treatment. Excessive heat is dissipated with a heat sink.
Abstract:
A device for iontophoresis. A first battery-powered array is submerged into a liquid contained in a first reservoir and a second battery-powered array is submerged into a liquid contained in a second reservoir. Each array has one or more degradable electrodes that releases ions into the liquid in the reservoir. The electrodes can be copper, zinc, steel, nickel, or a combination thereof. At the first array one of the electrodes can be positively charged while at the second array one of the electrodes can be negatively charged. Alternatively, an electrode at the second array can be positively charged while an electrode at the first array is negatively charged. The solution in the reservoir may also contain positively or negatively charged ions. Powering the arrays causes the charged molecules contained in the liquid to transport through a patient's skin. The device uses a current and voltage regulator to deliver a regulated amount of current through the arrays regardless of the conductivity of the liquid, and electronic circuitry is used to control the duration, polarity, electrode choice, and intensity of the treatment. Excessive heat is dissipated with a heat sink.
Abstract:
A method of using a hand-held laser device that can simultaneously provide two or more types of low level laser therapy treatments to two or more areas of a patient's body simultaneously. The device enables laser light of different pulse repetition rates, different beam shapes and spot sizes to be applied to a patient's body. The device includes two or more laser sources. In the preferred embodiment, two semiconductor diode laser sources simultaneously provide two separate laser beams from separate probes, one laser beam producing laser light at a first pulse repetition rate and the other producing laser light at a second pulse repetition rate.
Abstract:
A system for charging and programming one or more hand-held lasers. Each hand-held laser probe contains a rechargeable battery and means for storing program instructions. A base station transmits program instructions to the probe while the probe rests in the base or over the air by using radio or infrared frequencies. The probe may also be programmed by a portable memory unit. The base station is preferably connected to the internet, a telephone network, or computer. In the preferred embodiment, the probe fits into a cavity on the base station and the base station charges the batteries while the laser rests in cavity. The base is connected to house current.
Abstract:
An improved laser device that can simultaneously provide low level laser therapy treatments to the sympathetic and parasympathetic nervous systems. The device enables laser light of different colors, pulse frequencies, beam shapes and spot sizes to be applied externally to a patient's body. The device includes multiple laser sources. In the preferred embodiment, and hand-held wand emits two separate laser beams, one laser beam producing a pulsed line of red laser light and the other producing a pulsed line of green laser light.
Abstract:
This invention is a scanning laser device with a universal carriage that holds any type of optical element. The carriage rotates about an axis that is substantially co-axial to the incident laser beam, thereby causing the laser energy passing through the optical element to sweep through a 360° circle. The preferred embodiment uses a rod lens as the optical element, resulting in a large circular beam spot. The device may utilize laser sources of various wavelengths and pulse frequencies, and multiple devices may be combined to scan an even larger area.
Abstract:
A full-body non-invasive laser scanner for mapping or measuring a patient's body and for treating a patient's body with laser energy comprises a patient support, one or more laser devices, a laser guidance system, a control center, and optionally feedback sensors. The patient support aids in maintaining body alignment during treatment, and the laser devices are moveably positioned on a laser guidance system such that they can be driven about a stationary patient. To map and contour a patient's body, the patient aligns himself on the patient support. With the control center, an operator chooses whether to map, contour, or map and contour the patient's body either manually or according to preprogrammed treatment protocols. The carriage assembly translates and the laser devices apply laser energy to the surfaces of the patient's body according to the chosen protocol. Feedback sensors provide data for mapping the contours of the patient's body.
Abstract:
This invention is a scanning laser device with a universal carriage that holds any type of optical element. The carriage rotates about an axis that is substantially co-axial to the incident laser beam, thereby causing the laser energy passing through the optical element to sweep through a 360° circle. The preferred embodiment uses a rod lens as the optical element, resulting in a large circular beam spot. The device may utilize laser sources of various wavelengths and pulse frequencies, and multiple devices may be combined to scan an even larger area.