Abstract: A blood test device using a laser as a puncture member. More specifically, in a blood test device using a laser as a puncture member, the skin can be fixed at a definite position by raising the punctured skin under negative pressure, and thus the skin is brought into close contact with a blood sensor and the laser is focused on the vicinity of the blood sensor face. Thus, it is possible to provide a blood test device of the laser puncture type in which the skin can be surely punctured while giving little pain to a patient.

Abstract: In accordance with the teachings described herein, systems and methods are provided for treating pathological skin conditions. A method of removing fungus from a treatment area may include placing an energy delivery apparatus on the treatment area, and activating the medical laser to deliver electromagnetic energy over an exposure distance to the treatment area in order to cause a temperature of tissue in the treatment area to rise to within a fungal treatment temperature range. The energy delivery apparatus may be attachable to an energy emitting portion of a medical laser and may be configured to position the energy emitting portion at the exposure distance from a surface of the treatment area when the energy delivery apparatus is placed on the treatment area.

Abstract: The present invention is directed to systems, apparatus, methods and procedures for the noninvasive treatment of tissue using microwave energy. In one embodiment of the invention a medical device and associated apparatus and procedures are used to treat dermatological conditions using microwave energy.

Abstract: A device for treating the skin, for instance for removing body hair. The device includes a working head, which includes an irradiating device for irradiating the skin surface to be treated, preferably by means of light; a contact surface surrounding the irradiating device for supporting the working head on the skin surface; and a safety device for controlling the irradiation and/or for providing a safety signal. The safety device includes a recording device for recording the support of the working head on the skin surface. The contact surface defines a bell-like pressure and/or sound chamber and the recording device encompasses an impermeability sensor device for determining the over-pressure and/or sound impermeability of the pressure and/or sound chamber.

Abstract: The present invention relates to an IPL apparatus that is used as a hair removing machine or cures skin ailments by periodically irradiating Xenon lamp light on the user's skin, the IPL apparatus comprises: a double-voltage unit which has a double-voltage capacitor, and outputs a high voltage by superposing an inputted supply voltage with a voltage charged in the double-voltage capacitor; a charging capacitor which charges energy for turning on a Xenon lamp by accumulating electric charges supplied from the double-voltage unit; a reference voltage generator which sets a charging voltage level charged in the charging capacitor; and a switch unit which is positioned between the double-voltage unit and the charging capacitor, and switches on and off the movement of the electric charges to the charging capacitor from the double-voltage unit by setting an output of the reference voltage generator to a control signal.

Abstract: A light emitting device for use as a hair removal device is provided. The light emiting device has at least one radiation source for electromagnetic radiation providing at least one operating beam during operation of the device, a housing being intransparent for the operating beam having an output opening, at least one radiation source for electromagnetic radiation providing at least one sensing beam during operation of the device, at least one detector for detecting the sensing beam, at least one sensing window having a contact boundary surface, and a controller communicating with the radiation source providing the operating beam and with a detector and being operable to influence operation of the radiation source providing the operating beam responsive to the sensing beam detected at the detector.

Abstract: A hand held device generates a predetermined number of pulses of electromagnetic radiation having a predetermined electromagnetic spectrum, a predetermined duration, a predetermined inter-pulse interval, and a predetermined total energy. The pulse sequence is delivered to a skin surface to reduce or eliminate Xray or ultraviolet radiation damage to the skin surface.

Abstract: A modulating light having a wavelength of 400 nm to 600 nm is irradiated to a portion around hair roots at an energy of 0.01 J/cm2 to 1 J/cm2 over a time period of not more than 1 ms as a flash light such that a light absorptive component existing in a human body around the hair roots absorbs the light for modulating hair growth without causing substantial adverse effect.

Abstract: Disclosed herein is a novel method of treating vitiligo by using an excimer laser that emits light in the UVB range. The invention includes a method of incrementally increasing exposure of affected vitiligo areas with UVB laser light from an excimer laser to restore pigmentation to skin areas afflicted with vitiligo.

Abstract: The present invention provides an apparatus for photodynamic therapy and fluorescence detection, in which a combined light source is provided to illuminate an object body and a multispectral fluorescence-reflectance image is provided to reproduce various and complex spectral images for an object tissue, thus performing effective photodynamic therapy for various diseases both outside and inside of the body.

Abstract: A method of treating inaccessible microbial infections, the method comprising the steps of exposing the microbe, irradiating the microbe with infrared radiation and cooling such that heat inactivates the pathogen and stimulates a wound healing response in the patient.

Abstract: This application provides a consumer device for aesthetic applications, and methods for titrating doses of therapeutic light output from the device in the form of a non-uniform beam, in connection with dermal rejuvenation and cosmetic applications.

Abstract: A cardiac ablation instrument capable of removing blood from a treatment area is provided. The instrument includes a catheter configured to deliver a distal end thereof to a patient's heart. The instrument can also include an expandable element coupled to the distal end of the catheter wherein the expandable member is configured to be positioned adjacent a target area thereby defining a treatment area between the expandable member and the target area. Further, the instrument can include an irrigation mechanism configured to dispense an irrigation fluid from the catheter thereby displacing blood from the treatment area. Additionally, the instrument includes an energy emitter configured to deliver energy to tissue within the treatment area. The instrument can also include a contact sensor configured to determine the presence of such blood within the treatment area. Methods for ablating tissue are also provided.

Abstract: A dermatological treatment device is disclosed for generating a matrix of two dimensional treatment spots on the tissue. A handpiece carrier a laser which generates a beam of laser pulses. The pulses are focused onto the tissue with a lens system. A diffractive element is positioned between the laser and the lens system for splitting the laser beam into a plurality of sub-beams. A scanner translates the beam over the diffractive element to generate the two dimensional spot pattern. The laser has a semi-monolithic resonator design with one integral end mirror defining the output coupler and a second, independent mirror for adjustment.

Abstract: A light engine for a hand-held dermatological treatment device includes a heat sink, a laser package mounted to the heat sink, the laser package including a laser chip having at least one emitting edge or surface, a pair of lateral structures associated with the heat sink, and an elongated optical element positioned in front of the at least one emitting edge or surface of the laser chip. The elongated optical element extends between the pair of lateral structures associated with the heat sink, and is secured to each of the lateral structures at respective end of the elongated optical element.

Abstract: A laser device for treating skin is provided which includes a handholdable housing; a laser member arranged within the housing emitting an output beam; a capacitance sensor arranged at the first end of the housing which includes a plate surrounding and defining a window through which the output beam exits, the plate having at least three segments with each flexibly movable in and out of a common plane, each of the segments being connected to an electrode, the electrodes operating to determine dielectric constants of a skin surface; a signal and control storage device communicating with the sensor comparing input signals of measured dielectric constant values to a stored standard dielectric constant value, and wherein emission of the output beam is activated to fire only when all of the at least three segments align in a plane and sense the stored standard dielectric constant value.

Abstract: Portable laser hair removal of multi purpose use comprising a housing (2) with a head (11) and transparent dome (3) with bottom hole (4) having a laser illumination system with two diodes (5, 6), different in wavelength, power, opening, pulse period and average power pulse size in red and infrared, respectively.

Abstract: An electrode especially useful for RF skin tightening procedures is characterized by an active front that is conical in part with the conical surface having a cone angle that is shallower than the corresponding angle in known electrodes. Preferably, the electrode of the invention has a conical section whose surface forms an angle greater than 60 degrees with the longitudinal axis of the electrode, and the outside diameter of the conical section is greater than 50% of the overall outside diameter of the electrode.

Abstract: The invention relates to a laser scanning system (1) for scanning a laser beam (3) of a hair cutting device, the laser scanning system (1) comprising a laser scanning device (7) for generating a scanning movement of the laser beam and a movable optical device (5) for adjusting and/or focussing the laser beam. According to the invention the laser scanning device (7) comprises an arrangement with at least one movable optical element (11) which is mechanically coupled to the movable optical device (5), and an optical system (13) fixed to the laser scanning device (7), wherein the movable optical element (11) is arranged to inter-relate a position of the movable optical device (5) to a mobile access-position (23) where the laser beam enters the optical system (13), and wherein the optical system (13) is arranged to inter-relate said mobile access-position (23) to at least one corresponding position where the laser beam is incident on the movable optical device (5).

Abstract: An apparatus and process using a high-power, short-pulsed thulium laser to output infrared laser pulses delivered through an optical fiber, for cutting and ablating biological tissue. In some embodiments, the pulse length is shortened sufficiently to keep inside the stress-confined ablation region of operation. In some embodiments, the pulse is shortened to near the stress-confined ablation region of operation, while being slightly in the thermal-constrained region of operation. In some embodiments, the laser is coupled to a small low —OH optical fiber (˜100 ?m diameter). In some embodiments, the device has a pulse duration of about 100 ns for efficient ablation; however in some embodiments, this parameter is adjustable.

Abstract: The present invention relates to a method of observing biological tissue, the method comprising: collecting through a first end of a bundle of optical fibers light from a surface of the tissue; observing at least one image of the tissue at a second end of the bundle, while injecting light into the second end of the bundle to illuminate the surface of the tissue.

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 laser device is described for skin ablation treatment. The device comprises a laser source (5) and a handpiece (9). The laser beam has a Gaussian distribution of the power density to obtain different effects in the various regions exposed to the laser beam.

Abstract: Methods and devices are described that provide for eye-safe treatments using a photocosmetic device on skin tissue. In particular, various eye-safety devices protect the eye, including both the retina and the iris, as well as provide additional skin safety. The devices and methods described are particularly useful in consumer devices, but are useful in other devices also.

Abstract: There is disclosed a new low-level laser therapy apparatus and method of treating tissue. The invention includes a laser system that uses laser diodes and/or alternatively light emitting diodes (LED's), or both, and a digital interface that gives the operator the ability to generate sine waves or scalar waves as opposed to the simple on/off square waves. The invention also enables the operator to modulate not only the frequency, but also other wave characteristics such as the amplitude and phase. In one aspect, the invention involves modulating the phase relationship between multiple waves by taking one channel or wave which is pulsed through the laser system and then running a second channel or wave in relationship to the first channel, thereby creating a phased relationship, which has been discovered to provide a therapeutic and quantum healing effect on tissue.

Abstract: A light energy delivery head is provided which, in one aspect, mounts laser diode bars or other light energy emitters in a heat sink block which is adapted to cool both the emitters and a surface of a medium with which the head is in contact and to which it is applying light energy. In another aspect, various retroreflection configurations are provided which optimize retroreflection of back-scattered light energy from the medium. The size of the aperture through which light energy is applied to the medium is also controlled so as to provide a desired amplification coefficient as a result of retroreflection.

Abstract: A system for treating a selected dermatological problem and a head. The head may include an optical waveguide having a first end to which EM radiation appropriate for treating the condition is applied. The waveguide also has a skin-contacting second end opposite the first end, which is in contact with the skin, and has a reflection aperture which is substantially as great as the radiation back-scatter aperture from the patient's skin. The portion of the back-scattered radiation entering the waveguide is substantially internally reflected therein, with a reflector being provided. The reflector may be angle dependent so as to more strongly reflect back scattered light more perpendicular to the skin surface than back scattered radiation more parallel to the skin surface. The head may also have a mechanism for forming a reflecting chamber under the waveguide and drawing a fold of skin therein.

Abstract: Non-ablative skin resurfacing can include generating electromagnetic radiation having a wavelength of about 1920 nm to about 1950 nm and a fluence of about 3 J/cm2 to about 6 J/cm2. The electromagnetic radiation is delivered to a target region of skin to cause thermal injury to the epidermis in the target region sufficient to elicit a healing response that produces a substantially improved skin condition without detachment of the epidermis (e.g., within 3 days of treatment).

Abstract: An infrared wound healing unit having a layer of an optically and radiographically transparent flexible heating element which, when powered, emits heat that serves to heal a wound according to monochromatic infrared energy (MIRE) treatment of the wound. This infrared wound healing unit is arranged so that: (a) heat emitted from the layer of an optically and radiographically transparent flexible heating element passes to a wound of a patient to treat the wound, (b) the wound of the patient that is being treated can be viewed while heat is emitted from the layer of an optically and radiographically transparent flexible heating element to treat the wound, (c) the wound is accessible for other forms of treatment, and (d) the infrared wound healing unit remains secured to the patient while the wound is being viewed or treated.

Abstract: Embodiments of the present disclosure provides systems, devices, and methods for non-invasively modifying, maintaining, or controlling local tissue optical properties. Methods and devices of the disclosure may be used for optically clearing tissue, for example, for diagnostic and/or therapeutic purposes. A method of optically clearing a tissue may comprise contacting the tissue with an optical clearing device having a base, an array of pins fixed to one side of the base, a brim fixed to the base, an inlet port in the base, an exit port in the base, and a handpiece interface tab fixed to the side of the base opposite the array of pins, applying a mechanical force to the tissue, and illuminating said tissue with at least one wavelength of light through the optical clearing device. A method may further comprise controlling the temperature of the tissue illuminated.

Abstract: This invention provides topical pharmaceutical or cosmetic compositions, and uses thereof in treating a disease or condition of the hair follicle. The compositions of this invention are emulsions of an oil-in-polyol with a mean particle size of below one micron, and further comprising at least one oil, one polyol, and one stabilizer.

Abstract: A dermatological treatment device is disclosed for generating a matrix of two dimensional treatment spots on the tissue. A handpiece carrier a laser which generates a beam of laser pulses. The pulses are focused onto the tissue with a lens system. A diffractive element is positioned between the laser and the lens system for splitting the laser beam into a plurality of sub-beams. A scanner translates the beam over the diffractive element to generate the two dimensional spot pattern. The laser has a semi-monolithic resonator design with one integral end minor defining the output coupler and a second, independent mirror for adjustment.

Abstract: Switching power supplies made in accordance with the disclosed technology drive flash lamps of dermatologic treatment devices to emit a sequence of relatively small light pulses that are aligned with particular locations within the waveform of the AC line source. Such power supplies not only enable sufficient light energy in aggregate to therapeutically heat target chromophores in a skin region without causing undesired damage to surrounding tissue, but also provide the added benefit that the corresponding electrical energy need not be substantially drawn from any charged capacitor. The disclosed power supply further compensates for performance degradation of the flash lamps during their usable life, by modifying its operation based on predetermined values that are indicative of flash lamp aging/efficiency characteristics. The flash lamps and their associated stored values are preferably incorporated into a replaceable cartridge that facilitates user maintenance of the dermatologic treatment device.

Abstract: Disclosed herein are methods and systems for treatment, such as skin rejuvenation treatment, use non-uniform laser radiation. A high-intensity portion of the laser radiation causes collagen destruction and shrinkage within select portions of the treatment area, while a lower-intensity portion of the radiation causes fibroblast stimulation leading to collagen production across other portions of the treatment area. An output beam from a laser source, such as an Nd:YAG laser, is coupled into an optical system that modifies the beam to provide a large-diameter beam having a nonuniform energy profile, comprised of a plurality of high-intensity zones surrounded by lower-intensity zones within the treatment beam. The higher-intensity zones heat select portions of the target tissue to temperatures sufficient for a first treatment (e.g. collagen shrinkage), while the lower-intensity zones provide sufficient energy for a second treatment (e.g. stimulated collagen production).

Abstract: [Problem to be Solved] It cannot be said that the irradiation range of laser light is sufficiently wide, a lot of labor is taken to irradiate the skin with laser light, and there has been a problem that efficiency of cosmetic treatment is bad. [Solution] A laser treatment device is provided with a laser light source 40 consisting of at least one or more VCSEL array 41 that has two or more VCSEL elements 41s arranged on a single wafer and emits laser light for irradiating the skin. The laser treatment device may also be provided with: a reflected-light power detection means that detects power of reflected light of the light irradiating an irradiation part, the reflected light reflected from the irradiation part; and a control means that adjusts, in accordance with the power of the reflected light detected by the reflected-light power detection means, power of the laser light emitted from the light source means.

Abstract: A device and a method for thermal treatments of target material with various thermal interactions are disclosed. A preferred treatment includes Thermal Heat Shuttle that transports a predetermined known quota of energy to the target surface. In particular, the launching of thermal energy quanta from various energy sources in lumps of energy quanta and leading to the treatment and healing of a variety of skin conditions are disclosed.

Abstract: A light therapy appliance comprises an electronic circuit including Light Emitting Diodes (LEDs) configured to emit light at one or more different wavelengths. A hand held enclosure containing the electronic circuit includes a front lens that directs the multiple different colored lights to a top surface of skin. The light therapy appliance can be programmed for different skin conditions and may be used in conjunction with different topical ointments.

Abstract: In a fractional treatment system, an adjustable mechanism can be used to adjust the beam shape, beam numerical aperture, beam focus depth, and/or beam size to affect the treatment depth and or the character of the resulting lesions. Adjustment of these parameters can improve the efficiency and efficacy of treatment. Illustrative examples of adjustable mechanisms include a set of spacers of different lengths, a rotatable turret with lens elements of different focal distances, an optical zoom lens, and a mechanical adjustment apparatus for adjusting the spacing between two optical lens elements. In one aspect, the fractional treatment is configured with a laser wavelength that is selected such that absorption of the laser wavelength within the tissue decreases as the tissue is heated by the laser (e.g., 1480-1640 nm).

Abstract: A device for treating an area of skin by scanning radiation to form a pattern of treatment spots on the skin may include a radiation source that generates an input beam, and a scanning system that scans the input beam to provide a sequential series of reflected output beams that form a pattern of treatment spots on the skin. The scanning system may include a rotating scanning element including a plurality of reflection surfaces, each configured to reflect the input beam in an angular direction to provide one of the reflected output beams, such that as the rotating scanning element rotates about an axis, the input beam is sequentially reflected by different reflection surfaces to provide the sequential series of reflected output, beams, wherein a first reflection surface is offset from a second reflection surface in a direction generally along the axis of rotation of the rotating scanning element.

Abstract: A spectroscopic diagnostic apparatus is disclosed as an aid for laser tattoo removal. The apparatus performs spectroscopic analysis of the tattooed skin before or during laser treatment, which provides composition information of the tattoo pigments and photometric information of the skin for optimizing laser treatment protocols automatically or manually. It also provides a simulated treatment result for the selected laser types.

Abstract: An apparatus and method, for selective thermal treatment of tissue, below the surface, while avoiding injury to the superficial layers of the tissue. The apparatus comprises a reflective beam conversion system for providing a pre-selected therapeutic dose of light energy of optimal spectrum and optimal pulse duration to a confined target volumes at predetermined depth under the tissue surface, while reducing the thermal exposure of the surface of the tissue, and the overlying and surrounding tissues. The method is advantageous for treating a variety of medical and dermatological conditions in a safer and more effective manner.

Abstract: A hand-held device for providing laser-based dermatological treatments includes a laser beam source supported in a device body, an automated scanning system, and control electronics. The automated scanning system is configured to receive an input beam generated by the laser beam source and scan the input beam to provide a series of output beams for delivery to the skin via an application end of the device to form a pattern of treatment spots on the skin. The application end is configured for movement across the skin during a treatment session. The control electronics control the laser beam source and/or the automated scanning system to deliver the scanned output beams to the skin at a radiation intensity sufficient to provide an effective dermatological treatment, and wherein the scanned output beams delivered from the application end of the device meet the Class 1M or better eye safety classification per the IEC 60825-1.

Abstract: A hand-held device for providing a dermatological treatment by scanning a laser beam to form a pattern of treatment spots on the skin includes a laser source that generates an input beam, an automated scanning system, and a treatment spot control system. The automated scanning system includes a rotating multi-sector scanning element configured to repeatedly scan the input beam, each scan providing an array of output beams corresponding to the multiple sectors of the scanning element and forming a scanned row of treatment spots on the skin. The scanning element is configured such that each sector provides a constant-angular-direction output beam as that sector rotates through the input beam. The treatment spots of each scanned row are spaced apart from each other by areas of non-irradiated skin. The treatment spot control system provides a distance between adjacent rows of treatment spots in a direction of manual movement of the device.

Abstract: A device for providing a dermatological treatment, the device includes a device body, a radiation delivery system for delivering radiation to the skin to provide a dermatological treatment, and a situation-specific control system. The control system includes a plurality of sensors and control electronics programmed to receive signals from the plurality of sensors; determine whether to initiate radiation delivery by the radiation delivery system based on a comparison of the signals received from the plurality of sensors to a first condition; and once radiation is initiated, determine whether to continue radiation delivery by the radiation delivery system based on a comparison of the signals received from the plurality of sensors to a second condition that is different than the first condition.

Abstract: A self-contained, hand-held device for providing a dermatological treatment includes a radiation source configured to generate one or more radiation beams, and an optical system configured to deliver the one or more radiation beams to the skin to provide a dermatological treatment. Each radiation beam includes a first axis beam profile and an orthogonal second axis beam profile. The optical system includes a first axis optic configured to influence the first axis beam profile of each radiation beam by a greater extent than the second axis beam profile of each radiation beam, and a second axis optic configured to influence the second axis beam profile of each radiation beam by a greater extent than the first axis beam profile of each radiation beam.

Abstract: We describe devices, methods, and systems used for hair removal. In particular, we describe hair removal devices, particularly epilation devices, methods of using those devices, and systems including those hair removal devices. Our hair removal devices include, in combination, a.) at least one primary energy source that applies that energy, e.g., radio-frequency (RF), high intensity focused ultrasonic (HIFU) energy, or high intensity light, e.g., intense-pulsed light (IPL) or light from flash lamps or lasers, to the skin or to hair in a continuous, semi-continuous, or pulsed mode and b.) a hair removal component or components, such as rotary mechanical hair removal structures or epilators, that perform a mechanical hair removal step. Auxiliary treatment or control components such as comparatively lower power heaters, ultrasound devices, coolers, impedance measurement devices, etc. may also be included in the combination or used in conjunction with our combination device.

Abstract: Tissue is treated by irradiating it with a sequence of optical pulses that are directed in sequence to various sites on the tissue. During the irradiation sequence, one or more tissue properties are measured at a site(s) that has already been irradiated. These measurements are used to adjust the parameters of subsequent optical pulses in the sequence.

Abstract: A hand held device generates a predetermined number of pulses of electromagnetic radiation having a predetermined electromagnetic spectrum, a predetermined duration, a predetermined inter-pulse interval, and a predetermined total energy. The pulse sequence is delivered to a skin surface to reduce or eliminate Xray or ultraviolet radiation damage to the skin surface.

Abstract: A fractional treatment system can be configured with a laser wavelength that is selected such that absorption of the laser wavelength within the tissue increases as the tissue is heated by the laser (e.g., 1390-1425 nm). Desirably, the laser wavelength is primarily absorbed within a treated region of skin by water and has a thermally adjusted absorption coefficient within the range of about 8 cm?1 to about 30 cm?1. An adjustable mechanism can be used to adjust the beam shape, beam numerical aperture, beam focus depth, and/or beam size to affect the treatment depth and or the character of the resulting lesions. The system may be designed to be switchable between a treatment mode that is semi-ablative and a treatment mode that is not semi-ablative. Adjustment of these parameters can improve the efficiency and efficacy of treatment.

Abstract: A laser treatment device and process with controlled cooling. The device contains a cooling element with high heat conduction properties, which is transparent to the laser beam. A surface of the cooling element is held in contact with the tissue being treated while at least one other surface of the cooling element is cooled by the evaporation of a cryogenic fluid. The cooling is coordinated with the application of the laser beam so as to control the temperatures of all affected layers of tissues. In a preferred embodiment useful for removal of wrinkles and spider veins, the cooling element is a sapphire plate. A cryogenic spray cools the top surface of the plate and the bottom surface of the plate is in contact with the skin. In preferred embodiments the wavelength of the laser beam is chosen so that absorption in targeted tissue is low enough so that substantial absorption occurs throughout the targeted tissue. In a preferred embodiment for treating large spider veins with diameters in the range of 1.