Smart laser bio-sensor and bio-therapeutic device system and methods

An apparatus includes a housing having a treatment surface, a light source disposed adjacent the treatment surface and configured to emit dynamic photonic energy, a thermal element disposed adjacent the treatment surface and configured to emit dynamic thermal kinetic energy, and a controller disposed in the housing, the controller in communication with the light source and the thermal element to vary a plurality of parameters of the light source and the thermal element to control the characteristics of the dynamic photonic energy and the dynamic thermal kinetic energy emitted thereby. The treatment surface can also house a variety of sensors that can capture a variety of physical and chemical data, which is integrated with a malleable energy composition and delivery system that co-ordinates with the treatment progress.

FIELD OF INVENTION

The present disclosure relates generally to an apparatus, a system, and a method for therapy or treatment of a body of a user. In particular, the disclosure can be directed to a therapeutic device for emitting dynamic photonic energy and thermal kinetic energy to a treatment area of the body of the user.

BACKGROUND

Fragile joints are natural “shock absorbers” and take considerable abuse. Over 60 million persons in the United States between the ages of 20-60 have joint pain that limits performance and quality of life. Examples of common sources of knee pain are: i) Osteoarthritis, ii) obesity, iii) Patello-Femoral Syndrome, iv) Osgood-Schlatter disorder, v) Ligament strains and sprains, vi) Overuse syndromes, and vii) Plica Syndrome. In youth, joint wear and injury trigger toxicity we know as inflammation. This activates the immune system to help repair and promote healing. With age, and increased damage, this repair process slows and toxicity often accumulates damaging cartilage and soft tissue. This is known as Toxic Joint Syndrome. Toxic Joint Syndrome refers to unhealthy joints resulting from disease or injury. The degree of debility may vary; however, most individuals notice undesirable effects regarding their performance, functional abilities, and quality of life. Often, persons suffering from joint pain must tolerate pain and restricted performance while engaging in work and leisure activities. Moreover, sales of pain medications have exploded, though they are known to be potentially dangerous, ineffective, and potentially lethal. To add to the problem, analgesics and non-steroidal anti-inflammatory medications simply mask the pain and can produce long term multiple organ damage without enhancing healing or rehabilitation. It is also well known that a growing population of consumers are building a reliance on pain medication for a variety of pain and joint related problems that can be habit forming and even lethal.

A number of devices on the market use various light technologies and offer minimal to moderate therapeutic benefit. The light emitted by such devices is static, non-dynamic light. This in itself is a significant impediment to short and long term therapeutic benefit. Not only may the therapeutic spectrum be limited, but use of these technologies with time fails to overcome the natural adaptive mechanisms of the human nervous system. This physiologic phenomenon known as tachypylasis reduces the effect of stimuli to the body, making many medications and therapies less effective over time. Not infrequently, this can result in incidences of over medication.

It would be desirable to have an apparatus, system, and method for treatment of a body of a user, wherein the treatment includes the application of at least a dynamic photonic energy and a thermal kinetic energy to the body of the user.

SUMMARY OF THE INVENTION

Concordant and consistent with the present invention, an apparatus, system, and method for treatment of a body of a user, wherein the treatment includes the application of at least a dynamic photonic energy and a thermal kinetic energy to the body of the user, has surprisingly been discovered.

The apparatus, systems and methods of the present disclosure can use dynamic energies to recuperative systems a gentle boost simulating youth. When applied to the surface area the treatment or therapy apparatus can collect data from the injured joint and can calculate a digital prescription especially formulated for the user's condition that is delivered through the soft tissue often avoiding the potential harmful effects of pain medication.

In an aspect, an apparatus can comprise: a substantially rigid housing with a lower portion and an upper portion, the lower portion of the housing having a substantially curvilinear shape; a flexible circuit board disposed in a cavity formed in the lower portion of the housing; a light source in electrical communication with the circuit board and configured to emit dynamic photonic energy; a thermal element in electrical communication with and configured to emit dynamic thermal kinetic energy; a sonic element in electrical communication with and configured to emit dynamic subliminal ultrasonic energy; a controller disposed in the housing, the controller in communication with the light source, the thermal element, and the sonic element to vary one or more parameters of the light source, the thermal element, and the sonic element to control the characteristics of one or more of the dynamic photonic energy, the dynamic thermal kinetic energy, and the dynamic subliminal ultrasonic energy emitted respectively thereby; and a sensor in electrical communication with the circuit board and the controller to form a feedback loop, wherein the controller provides electrical energy to one or more of the light source, the heating element, and the sonic element in response to a signal received from the sensor.

In an aspect, an apparatus can comprises: a housing having a treatment surface; a light source disposed adjacent the treatment surface and configured to emit dynamic photonic energy; a thermal element disposed adjacent the treatment surface and configured to emit dynamic thermal energy; and a controller disposed in the housing, the controller in communication with the light source and the thermal element to automatically vary a plurality of parameters of the light source and the thermal element to control the characteristics of the dynamic photonic energy and the dynamic thermal energy emitted thereby.

In an aspect, a system can comprise: a therapy device including a housing having a treatment surface, a light source disposed adjacent the treatment surface and configured to emit dynamic photonic energy, a thermal element disposed adjacent the treatment surface and configured to emit dynamic thermal kinetic energy, and a controller disposed in the housing, the controller in communication with the light source and the thermal element to vary a plurality of parameters of the light source and the thermal element to control the characteristics of the dynamic photonic energy and the dynamic thermal kinetic energy emitted thereby; and a base station including an electrical circuit configured to provide electrical energy to the therapy device when the therapy device is in electrical communication therewith

In an aspect, photonic energy can refer to particles of light (photons) that are employed using a variety of multiple wavelengths. As an example, photonic energy can comprise transmission of particles in one or more of the visible and invisible spectrum. As a further example, particles can be employed using a plurality of parameters, including, but not limited to: magnitude (joules), patterns, sweeps, cascades, duty cycles, frequencies, alternations, and time. In an aspect, the parameters of the photonic energy transmission can change thousands of times per second.

In an aspect photon packets are employed using a variety of wave lengths (550→1000 nanometers). These multi-spectrum packets of electromagnetic (or light) energy are deployed using a variety of parameters (i.e. duty cycle, patterns, sweeps, sweep frequency, intensity, variable coherence, angle, integration with thermal components, timing, etc.) These parameters change thousands of times per second.

In an aspect, an operating system can incorporate feedback information from sensors (thermistors, EMG, infrared and, moisture) located in/on a treatment module. As an example, the operating system can utilize an “electronic energy prescription” (Veriscription™) to deploy the energy package which includes one or more of photonic energy, thermal kinetic energy, and dynamic subliminal ultrasonic energy to the body surface. Algorithms can govern the Veriscription and can automatically and continuously adjust the treatment for a specified treatment area and condition (e.g., mode selection).

In an aspect, thermal kinetic energy can be generated from duel sources: ambient photo and resistance. Other source(s) can be used. As an example, thermal properties can be manipulated through multiple cycles; deployed in changing joule packets; and/or delivered in concert with the Photonic components. Thermal kinetic energy is dynamic, in contrast to static heat.

In an aspect, joules of heat are generated from multiple sources: Resistance Heat: produced by Resistors, Ambient Heat: produced by LEDS, and/or Thermal Mass Heat: produced by Enclosure (heat contained in vessels).

In an aspect, dynamic subliminal ultrasonic energy can be a dynamic form of sound waves not audible to the human ear. As an example, ultrasonic waves can be employed in a way that they are neither heard nor felt. As a further example, subliminal ultrasonic energy can be delivered using multiple and varying parameters. In an aspect, sound waves can be used utilized and manipulated in such a fashion as to not damage tissue (e.g., cavitation). In an aspect, dynamic subliminal ultrasonic energy can comprise variable parameters including: Frequency (e.g., 0.8 MHZ to 4 MHZ); Timing (e.g., 1-10 millisecond bursts—variable off and on through treatment cycle); Intensity (e.g., continuous or from 10% to 100% ultrasound delivery); and Focus (narrow to broad beam).

In an aspect, sonic parameters can be automatically and constantly changed which provides dynamic properties. The dynamic subliminal ultrasonic energy is integrated in concert with the other energies (photonic and thermal kinetic described above) to produce additional and enhanced therapeutic effects.

In an aspect, biosensory feedback looping can be used. As an example, multiple bio-sensors (e.g., thermistor, electrode, infrared mapping device, etc) are positioned in a treatment surface of device. Additional sensory technology can include measurements of blood flow, thermal mapping, chemical substance levels (e.g. nitric oxide, pH, lactic acid, etc.), fluid volume, fluid density, and particulate matter. This can provide measurable data before and after treatment that will provide guidance on the improvement of the user's condition.

An operating system, processor, computing device, and/or software can compute information relating to one or more of an area of treatment, treatment mode selected, energy levels, biosensory data, etc. As an example, customized treatment can be delivered at the skin surface to the selected area. As a further example, as a result of this highly developed computerized system, the phenomenon of tachyphylaxis (adaptation by the body to repeated stimuli/treatment) is overcome. Accordingly, treatment time can be unlimited and/or treatment frequency can be unlimited. Favorable results have been achieved, whereby pain is minimized, circulation is maximized, mobility is improved, and performance is enhanced.

FIGS. 1-7illustrate a therapy system10according to an embodiment of the present disclosure. As shown, the therapy system10includes a therapy device12or apparatus and a base station14, wherein the therapy device12can be releaseably and selectively coupled to the base station14for storage and/or charging. It is understood that the therapy system10can include additional components and treatment components such as a treatment gel, for example.

As more clearly shown inFIGS. 8-14, the therapy device12can have a substantially rigid housing16with a lower portion18and an upper portion20. In the embodiment shown, the lower portion18of the housing16has a substantially curvilinear shape defining a treatment surface22. In certain embodiments, the lower portion18of the housing16has a pre-determined substantially semi-circular shape having a radial center-point CP. However, it is understood that the lower portion18of the housing16can have any size and shape.

In certain embodiments, an outer wall24of the lower portion18of the housing16can include a mechanism26for securing the therapy device12to a patient during use. As a non-limiting example, the securing mechanism26includes a pair of generally circular discs28, each of the discs28coupled to an elongate tab30or protrusion extending from the outer wall24of the lower portion18of the housing16. Typically, the discs28have a larger radius than a radius or width of the associated tab30. Accordingly, a strap (not shown) can be positioned around a portion of a circumference of each of the tabs30and secured in position by the disc28coupled thereto, as appreciated by one skilled in the art. The strap can then be positioned around a portion of a body of the user to secure the therapy device12in a generally static position relative to the body of the user. It is understood that the securing mechanism26can have any shape and size. It is further understood that other means of securing the therapy device12to the user can be used.

In certain embodiments, a cavity32can be formed in the treatment surface22of the lower portion18of the housing16. As a non-limiting example, a circuit board34is disposed adjacent/in the cavity32. As a further non-limiting example, the circuit board34is a flexible circuit board. An example of a suitable circuit board is manufactured by Century Circuits. The circuit board34is typically in electrical communication with a source of electrical energy36in a manner that is well known in the art. As a non-limiting example, the source of electrical energy36is a removable and rechargeable battery pack (e.g. accessible via a battery plate37removably coupled to the housing16). The circuit board34is configured so that various electrical components can be connected to the circuit board34whereby electrical energy can be supplied to the various components in a manner to activate and control the electrical components.

A plurality of light emitting diodes (LEDs)38can be operatively connected to the circuit board34to selectively energize the LEDs38. As a non-limiting example, the LEDs38are positioned in the cavity32and configured to emit photonic energy outwardly from the cavity32. In certain embodiments, the LEDs38are mounted on the circuit board34. It is understood that the LEDs38can be positioned in any configuration to allow a photonic energy to be emitted therefrom and directed toward the user. As a further non-limiting example, photonic energy is defined as a dynamic form of electromagnetic radiation, wherein particles of light (photons) are emitted having a variety of wave lengths (both in the visible and invisible spectra). Specifically, each of the LEDs38can be controlled to change the parameters of photons emitted therefrom thousands of times per second. In certain embodiments, a plurality of photons is emitted as a photon packet, wherein each photon of the photon packet has similar parameters and photonic characteristics. As a non-limiting example, each of the photons or photo packets is emitted having a variable wavelength ranging from 550-1000 nanometers. As a further non-limiting example, each of the photons or photon packets is deployed having a variety of controlled parameters (i.e. duty cycle, patterns, sweeps, sweep frequency, intensity, variable coherence, angle, integration with thermal components, timing, etc.). It is understood that the parameters of each photon or photon packet can be varied. It is further understood that the parameters of each photon or photon packet are automatically varied multiple times per second (e.g. from one hundred to over one thousand times per second).

A plurality of thermal elements40can be operatively connected to the circuit board34and positioned adjacent the LEDs38. As a non-limiting example, the thermal elements40are resistive heating elements such as resistors manufactured by the Vishay/Dale. As a further non-limiting example, the thermal elements40are configured to extend from the cavity32in a similar manner as the LEDs38. Accordingly, the thermal elements40are disposed adjacent a surface of the user that is to be treated during a treatment process. In certain embodiments, the thermal elements40are mounted on the circuit board34. The thermal elements40can be selectively and dynamically activated by the circuit board34to impart a thermal kinetic energy to the surface that is being treated. As a non-limiting example, thermal kinetic energy is defined as a dynamic form of heat. In the embodiment shown, the thermal kinetic energy is generated from at least three sources, namely, a direct energy from the thermal elements40, an ambient energy from the other elements (e.g. LEDs38) of the therapy device12, and a thermal mass heat produced by enclosure (heat contained in vessels). The overall thermal kinetic energy is controlled by varying the thermal characteristics of at least one of the sources of thermal kinetic energy. As a non-limiting example, the thermal elements40can be controlled through multiple cycles of dynamic joule packets, wherein each “joule packet” represents a discrete amount of calculated heat delivered in concert with the ambient heat of the LEDs38. It is understood that each joule packet can be automatically varied multiple times per second to provide a dynamic treatment.

In certain embodiments, the therapy device12can include a plurality of sonic elements42operatively connected to the circuit board34and positioned adjacent at least one of the LEDs38and the thermal elements40. The sonic elements42are configured to emit a dynamic subliminal ultrasonic energy. As a non-limiting example, the dynamic subliminal ultrasonic energy is defined as a dynamic form of sound waves not audible to the human ear. As a further non-limiting example, the dynamic subliminal ultrasonic energy is embodied by a plurality of ultrasonic waves emitted in a manner that is neither heard nor “felt” by the user. The dynamic subliminal ultrasonic energy is typically delivered using multiple and varying parameters. As a non-limiting example, variable parameters of the sonic elements42include: frequency (0.8 MHZ to 4 MHZ); timing (1-10 millisecond bursts—variable off and on through treatment cycle); intensity (continuous or from 10% to 100% ultrasound delivery); and focus (narrow to broad beam). In certain embodiments, the parameters of the sonic elements42are automatically and constantly changed to provide dynamic properties in concert with the photonic and thermal kinetic energies.

In certain embodiments, a plurality of thermistors44can be operatively connected to the circuit board34and are positioned to be adjacent the LEDs38. The thermistors44are designed to measure the temperature on the surface that is being treated by the therapy device12. In certain embodiments, the thermistors44are mounted on the circuit board34in a manner that allows the thermistors44to effectively monitor the temperature on the entire surface that is being treated by the therapy device12. The thermistors44can measure temperature of a surface segmentally or averaged for the entire surface that is being treated. In certain embodiments, the circuit board34provides a feedback loop that reacts to the temperature readings, and multiple or individual readings obtained in regard to a variety of physical and chemical elements. The technology “learns” from the sensory information collected and adjusts the energy supplied to the LEDs38and thermal elements40to maintain the desired therapeutic energy delivery on the surface being treated. Moreover as the operating system incorporates the discovered sensory information, it can continuously adjusts the therapeutic energy formula. In other words, the device can “learn” the continuously changing status of the individual being treated, and it continuously changes and adapts the therapeutic multiple energy formula in concert with the learned information and the changing conditions. In addition, the some or all of the sensory discovered parameters may be displayed on the LCD screen, stored in memory, or uploaded wirelessly or wired, to another computer or the internet.

In certain embodiments, a plurality of electrodes46can be operatively connected to the circuit board34in the same manner as the LEDs38and thermal elements40previously described. Electrodes made by the Vishay/Dale Company can be used with the therapy device12. The electrodes46are utilized to detect the electrical currents that are generated in an active muscle that is receiving treatment from the therapy device12. It is understood that other sensors and feedback devices can be included such as: infrared heat sensors with pre- and post-Rx for thermal mapping; sound sensors with pre- and post-Rx for sonic mapping of pre- and post-origination of measurements including the radiant pattern of the pain and post treatment measurement; Electroencephalography (EEG) sensors to measure pre- and post-Tx muscle tension and activity; and a camera to measure distance of flexion excursion (could use radar like technology and digital and graphic display reporting and mapping).

As a non-limiting example, a cover48or encapsulant can be positioned over the LEDs38, the thermal elements40, the sonic elements42, the thermistors44and the electrodes46to separate these elements from the environment in which the therapy device12is used. An example of the cover48is an infra-red transparent material. A non-limiting example is D9930 doming material produced by Epic. The cover48is also impervious to bacteria, viruses, and debris and provides a flexible barrier and protects the electronic components from environmental contaminants when the therapy device12is utilized to provide dynamic photonic and kinetic thermal stimulation. The cover48can also have a traction surface for providing a friction or adhesion between the treatment surface22and the body of the user. In certain embodiments, a soft, disposable strip of rubber or foam material is positioned on the housing16to provide comfort from the pressure from the housing16of the firmly attached therapy device12.

The upper portion20of the housing16can include a user interface50in electrical communication with a controller52. As shown, the user interface50includes a display54, a plurality of user-engageable buttons56, and an interface data port58. It is understood that the user interface50can include other interface elements such as, lights, audio elements and user-controlled elements.

The display54can be any means for providing a visual feedback to the user. As a non-limiting example, the display54is a liquid crystal display (LCD) to present information to the user such as currently used parameters, bio-sensor feedback, a graphical display of the pattern and sequencing of the LEDs38(or other components), and other digital and graphical information. The display54is typically in data communication with the controller52to receive data signals therefrom to control the information being presented to the user.

The user-engageable buttons56provide a means for the user to control the components of the therapy device12. Typically, the user-engageable buttons56are in communication with the controller52to allow the user to provide a control input to the controller52, thereby affecting the operation of the therapy device12. As a non-limiting example, a power button can be included, wherein the power button activates or deactivates the therapy device12. As a further non-limiting example, a mode button is provided to select treatment settings, which define a pre-set range of parameters for the components of the therapy device12.

The interface data port58can be any data interface (wired or wireless) for providing intercommunication between the therapy device12and a secondary device or system (not shown) such as a personal computer, the Internet, a remote server, a physician's office computer, and the like. It is understood that software can be provided to facilitate the secure transfer and/or analysis of the data received from the therapy device12. It is further understood that data can be transferred to the therapy device12from a secondary source. It is further understood that the interface data port58can be integrated with the base station14.

In certain embodiments, the controller52is enclosed within the upper portion20of the housing16. However, it is understood that the controller52can be positioned within the lower portion18of the housing16. The controller52is operatively connected to the circuit board34for controlling a supply of electrical energy to a variety of electrical components and in particular the LEDs38, the thermal elements40, and the sonic elements42. The controller52is designed to provide a wide range of operational characteristics for the LEDs38including allowing the LEDs38to be sequenced in the activated mode to satisfy various operating parameters that will enhance the delivery of the photonic energy to the user of the therapy device12. Further, the controller52is configured to receive feedback signals from the various sensors and measurement devices including the thermistors44and the electrodes46.

As more clearly shown inFIGS. 15-21, the base station14can include a housing60with a lower surface62and an upper surface64. In the embodiment shown, a plurality of feet66is coupled to (or formed on) the lower surface62to protect the lower surface62of the housing60, while providing traction between the housing60and a secondary (e.g. substantially static) surface (e.g. a counter, a table, and the like).

In the embodiment shown, the base station14includes an electrical circuit68interposed between a secondary source of electrical energy70and a plurality of electrical terminals72. As a non-limiting example, the source of electrical energy36can be electrically coupled to the electrical circuit68of the base station14for charging, independent of the therapy device12.

In certain embodiments, the electrical terminals72are aligned with a plurality of charging terminals74formed in/on the housing16of the therapy device12to charge the therapy device12(i.e. the source of electrical energy36), while the therapy device12is mechanically coupled to the base station or “docked”. It is understood that other means of charging the source of electrical energy36can be used. It is further understood that the secondary source of electrical energy70can be remote from the base station14and in electrical communication with the electrical circuit68via an electrical conductor (e.g. a wire or converter).

In operation, the therapy device12is positioned on the surface that is to receive treatment. The controller52is operatively connected to the circuit board34for controlling the supply of electrical energy to a variety of electrical components including the LEDs38, the thermal elements40, and the sonic elements42. It is understood that the source of electrical energy36can be a portable battery pack to allow the therapy device12to be used without cords.

As a non-limiting example, the controller52controls the LEDs38so that the LEDs38are activated in various geometrical patterns. The controller52can also be utilized to establish the rate that each of the LEDs38or a cluster of the LEDs38is electrically activated and deactivated. The pattern and rate at which the LEDs38are activated and then deactivated can be controlled by the controller52to produce the desired treatment results for the user of the therapy device12. In particular, the controller52can provide a variable refresh rate for the therapy device12which cycles how often the pattern of the treatment modalities is repeated. Each of the LEDs38can be individually sequenced, and sequenced in various patterns, sequenced in multiple and variable sweep times, sequenced with accompanying variable thermal energy. Each of the LEDs38can be automatically varied to emit visible and invisible light.

The controller52can also be utilized to control the pattern and rate at which the thermal elements40are energized and deenergized by the circuit board34. The pattern and rate at which the thermal elements40are energized and deenergized for the thermal elements40can established to be essentially the same as the pattern and rate for the LEDs38or the controller52can be utilized to operate the thermal elements40independently of the pattern and rate of the LEDs38.

The controller52can also be utilized to control the pattern and rate at which the sonic elements42are energized and deenergized by the circuit board34. The pattern and rate the sonic elements42are energized and deenergized can established to be essentially the same as the pattern and rate for the LEDs38or the controller52can be utilized to operate the sonic elements42independently of the pattern and rate of the LEDs38.

The electrical currents that are detected by the electrodes46are sent to the controller52where an electromyographic instrument can be utilized to evaluate the electrical currents to determine the degree of muscle tension, contraction and relaxation in the muscles that are receiving treatment from the therapy device12. The degree of muscle tension and contraction indicated by the electrodes46is used to establish treatment time or other treatment options. The degree of muscle tension and contraction provides measurable information on the status of the treatment that can be used to supplement the subjective reactions of the user to the treatment received by the therapy device12.

The controller52(e.g. via an operating system or software) utilizes an “electronic energy prescription” (Veriscription™ electronic prescription) to deploy the treatment energy package which includes photonic energy, thermal kinetic energy, and dynamic subliminal ultrasonic energy to the body surface. As a non-limiting example, five proprietary algorithms govern the controller52to automatically and continuously adjust the treatment for the specified area and condition (i.e. Mode selection).

The controller52incorporates feedback information from sensors (e.g. temperature, electrical impulse, infrared, moisture, and the like) located in the therapy device12. Customized treatment is delivered at the skin surface to the selected area. As a result of this highly developed computerized system: the phenomenon of tachyphylaxis (adaptation by the body to repeated stimuli/treatment) is overcome; treatment time is unlimited; and treatment frequency is unlimited.

The desired temperature for the surface that is being treated can be set with the controller52and the thermistors44measure the actual temperature of the surface and supply the temperature feedback information to the controller52. The actual temperature can be compared to the desired temperature and the controller52can adjust the energy supplied to the thermal elements40to maintain the temperature on the surface that is being treated in the desired range. The thermal feedback provided by the thermistors44allows the heat energy provided by the surface that is being treated to be maintained at an effective and safe level. In addition, a biosensory feedback looping is provided to the controller from various biosensors positioned in the treatment surface22of the therapy device12. It is also understood that adjustment of all the energy parameters can be governed by the learned information regarding a variety of physical and chemical readings discovered by the sensory elements in the treatment surface.

It is also realized that multiple areas of the human body have different and often unique anatomical composition, physiology, and form. Therefore, applications employing the present invention can vary between anatomical areas of the body and between species. Therefore, it should be understood that treatment energy ingredients, treatment parameters, composition, and delivery algorithms will be unique and proprietary to species, area, and condition such as: upper back—cervical/thoracic cast; low back—lumbosacral cast; a head (cranial) cast; smaller joint cast—wrist, ankle, hand and foot cast; Rx arthritis; plantar fasciitis; injury; hip cast; cranial cap; head pain; muscular pain; ligamentous pain; facial pain; neuritic pain i.e. occipital neuritis; facial/sinus cast; relieve sinus pain; facilitate sinus drainage; provide topical treatment to cutaneous structures; equine hock adaptor; and the like.

The mode selection enables the user to select the treatment that relates to the nature and location of their condition. For example, an injury or condition of a specific body area (i.e. the knee joint) of less than 30 hours duration requires a unique energy and sequencing pattern that integrates a specific heat range.

When the treatment surface is applied directly to the skin the energies imparted by the therapy device12propagate various chemical and physiological reactions which can also be utilized to help quantify the level of benefit the treatment is providing. For example, it is envisioned that software in the operating system of the controller52could be enhanced to include base line sensory and performance metrics measured and recorded before and after treatment. This information would demonstrate the benefit the user had received from the treatment therapy session, and can then be utilized to formulate and customize subsequent therapies. Furthermore, diagnostic results can be uploaded from the therapy system12to a remote location for detailed analysis. Additionally, programming updates can be downloaded to the controller52.

In certain embodiments, a composition of a plurality pharmaceutically active agents is applied to a surface of the body of the user to penetrate the skin of the user in order to amplify the beneficial effects of the treatment of the therapy device12. In particular, a treatment gel employs traditional components consisting of water, ethanol (ETOH) and glycerin to increase a skin moisture content. There are additional components in the gel which make the product unique and differentiate it from hand creams, lotions and balms that are currently on the market. These additional components and functional examples are provided below:1) L arginine: loosens the bonds between cells of the stratum corneum (upper layer of skin) to facilitate the passage of photonic and thermal kinetic energy; and raises the potential for local generation of nitric oxide, which causes vasodilatation and attendant increased circulation.2) Urea: thins and softens thick, damaged or devitalized skin to facilitate the passage of photonic and thermal kinetic energy; gently dissolves the intercellular matrix of skin to facilitate the passage of photonic and thermal kinetic energy; and provides a hyperosmolar environment to enhance intradermal moisture content to facilitate the passage of photonic and thermal kinetic energy.3) Phosphatidyl Choline: augments the urea effect of thinning and softening of thick, damaged or devitalized skin to facilitate the passage of photonic and thermal kinetic energy; and augments the urea effect to promote dissolution of the intercellular matrix matrix of skin to facilitate the passage of photonic and thermal kinetic energy.

As a non-limiting example, the gel can include a transdermal “ketophrofen” (RS)2-(3-benzoylphenyl)-propionic acid (chemical formula C16H14O3) to deliver therapeutic anti-inflammatory and analgesic effects.

Favorable results have been achieved with embodiments of the gel having a variable pH from 5-8 and including a carbopol including water, ETOH, and Glycerin along with Urea in concentrations from 0.1% to 10%, L-Arginine monohydrochlorice salt in concentrations from 0.1% to 20%, and Phosphatidyl Choline in concentrations from 0/1% to 10%. As a non-limiting example, the gel can also have a base of isopropyl myristate. It is understood that other chemicals, compounds, and ingredients can be used is similar combination as described herein above.

FIG. 22is a block diagram illustrating an exemplary operating environment for performing the disclosed methods. This exemplary operating environment is only an example of an operating environment and is not intended to suggest any limitation as to the scope of use or functionality of operating environment architecture. Neither should the operating environment be interpreted as having any dependency or requirement relating to any one or combination of components illustrated in the exemplary operating environment.

Further, one skilled in the art will appreciate that the systems and methods disclosed herein can be implemented via a general-purpose computing device in the form of a controller or computer101. As an example, controller52can be similar to computer101. The components of the computer101can comprise, but are not limited to, one or more processors or processing units103, a system memory112, and a system bus113that couples various system components including the processor103to the system memory112. In the case of multiple processing units103, the system can utilize parallel computing.

The system bus113represents one or more of several possible types of bus structures, including a memory bus or memory controller, a peripheral bus, an accelerated graphics port, and a processor or local bus using any of a variety of bus architectures. By way of example, such architectures can comprise an Industry Standard Architecture (ISA) bus, a Micro Channel Architecture (MCA) bus, an Enhanced ISA (EISA) bus, a Video Electronics Standards Association (VESA) local bus, an Accelerated Graphics Port (AGP) bus, and a Peripheral Component Interconnects (PCI), a PCI-Express bus, a Personal Computer Memory Card Industry Association (PCMCIA), Universal Serial Bus (USB) and the like. The bus113, and all buses specified in this description can also be implemented over a wired or wireless network connection and each of the subsystems, including the processor103, a mass storage device104, an operating system105, treatment software106, treatment data107, a network adapter108, system memory112, an Input/Output Interface110, a display adapter109, a display device111, and a human machine interface102, can be contained within one or more remote computing devices114a,b,cat physically separate locations, connected through buses of this form, in effect implementing a fully distributed system.

The computer101typically comprises a variety of computer readable media. Exemplary readable media can be any available media that is accessible by the computer101and comprises, for example and not meant to be limiting, both volatile and non-volatile media, removable and non-removable media. The system memory112comprises computer readable media in the form of volatile memory, such as random access memory (RAM), and/or non-volatile memory, such as read only memory (ROM). The system memory112typically contains data such as treatment data107and/or program modules such as operating system105and treatment software106that are immediately accessible to and/or are presently operated on by the processing unit103.

Optionally, any number of program modules can be stored on the mass storage device104, including by way of example, an operating system105and treatment software106. Each of the operating system105and treatment software106(or some combination thereof) can comprise elements of the programming and the treatment software106. Treatment data107can also be stored on the mass storage device104. Treatment data107can be stored in any of one or more databases known in the art. Examples of such databases comprise, DB2®, Microsoft® Access, Microsoft® SQL Server, Oracle®, mySQL, PostgreSQL, and the like. The databases can be centralized or distributed across multiple systems.

In another aspect, the user can enter commands and information into the computer101via an input device (not shown). Examples of such input devices comprise, but are not limited to, a keyboard, pointing device (e.g., a “mouse”), a microphone, a joystick, a scanner, tactile input devices such as gloves, and other body coverings, and the like These and other input devices can be connected to the processing unit103via a human machine interface102that is coupled to the system bus113, but can be connected by other interface and bus structures, such as a parallel port, game port, an IEEE 1394 Port (also known as a Firewire port), a serial port, or a universal serial bus (USB).

In yet another aspect, a display device111can also be connected to the system bus113via an interface, such as a display adapter109. It is contemplated that the computer101can have more than one display adapter109and the computer101can have more than one display device111. For example, a display device can be a monitor, an LCD (Liquid Crystal Display), or a projector. In addition to the display device111, other output peripheral devices can comprise components such as speakers (not shown) and a printer (not shown) which can be connected to the computer101via Input/Output Interface110. Any step and/or result of the methods can be output in any form to an output device. Such output can be any form of visual representation, including, but not limited to, textual, graphical, animation, audio, tactile, and the like.

The computer101can operate in a networked environment using logical connections to one or more remote computing devices114a,b,c. By way of example, a remote computing device can be a personal computer, portable computer, a server, a router, a network computer, a peer device or other common network node, and so on. Logical connections between the computer101and a remote computing device114a,b,ccan be made via a local area network (LAN) and a general wide area network (WAN). Such network connections can be through a network adapter108. A network adapter108can be implemented in both wired and wireless environments. Such networking environments are conventional and commonplace in offices, enterprise-wide computer networks, intranets, and the Internet115.

EXAMPLES

The systems and methods of the present disclosure can comprise a treatment platform (e.g., Non-Invasive Neuro-Vascular Stimulation) that can be delivered to painful joints by means of various devices for a variety of applications. In an aspect, the patient/user experience includes pain reduction, accelerated healing, improved mobility, and enhanced performance, and discovery of a variety of cutaneous and intra-articular parameters that are present before, during and after treatment. The treatment platform can incorporate photonic and thermal kinetic energies delivered by a complex mathematical formulas incorporating a plurality (e.g., 14) variable parameters among which include: i) Photonic Energy comprised of multiple wave lengths, sequencing, patterns, refresh rates, energies, and duty cycles, ii) Thermal Kinetic Energy, dynamically changing thermal delivery properties, and iii) Subliminal Sonic Message (SSM). Each user can receive a personalized Veriscription or “electronic-prescription” that is formulated specifically to a body area and condition. Moreover, the system can also collect an assortment of data from the treatment surface of the user and insert treatment variables in a treatment algorithm for delivery to the body.

A delivery implement can comprise computer chips and/or microprocessors which are programmed with multiple parameters and functions that activate and sequence specialized LEDs (light emitting diodes) and other electronic components on the treatment surface.

The treatment surface, located on the treatment module portion of the delivery implement can be equipped with specialized technology that integrates looped biofeedback information. The implement/device can assimilate multiple afferent and efferent parameters that subsequently direct and effect the afore mentioned complex treatment administered to the surface of the body.

In an aspect, mode selection enables the user to select the treatment that relates to the nature and location of their condition. For example, an injury or condition of a specific body area (i.e. the knee joint) of less than 30 hours duration requires a unique energy and sequencing pattern that integrates a specific heat range.

When the treatment surface is applied directly to the skin the energies used in the systems and methods promotes various chemical and philological reactions which can also be utilized to help quantify the level of benefit the treatment is providing. For example, it is envisioned that software in the operating system could be enhanced to include base line sensory and performance metrics measured and recorded before and after treatment. This information would demonstrate the benefit the user had received from the treatment therapy session, and can then be utilized to formulate and customize subsequent therapies.

The unique clinical advantages of the present systems and methods comprise: i) safe treatment of pain and limited performance, ii) highly effective (>85%) pain relief and improved mobility iii) no adverse side-effects, iv) prevention of tachyphylaxis (adaptation by the body), and v) accelerated healing and rehabilitation.

Current methodologies for data collection of pain and joint discomfort are inadequate. Ongoing research may provide data on chemical, structural and physiological events when healing or an improvement in joint mobility takes place. For example, heat generated by an affected joint may dissipate move or change character over the course of the treatment session. Other events may include changes in chemical parameters such as pH, nitric oxide, lactic acid, fluid volume, fluid density, and etc. Furthermore, the delivery technology of the disclosed systems and methods can be enhanced to offer a “heat mapping” technology design to detect and collect certain changes in the treatment site.

This can include muscle tension or fibrillation detection or the emission of chemicals from the skin surface. This can contribute to the detoxification of the joint and cessation of the sensation of pain during and after the treatment session. These improvements can provide more customized and personalized treatment to improve the condition of the user, collect data useful to medical research, and aid in therapeutic and diagnostic arenas.

It is intended that any enhancements as discussed herein would be simple to use with an intuitive interface that would require few instructions. Furthermore, a hand-held unit could be delivered to the user without the software installed. Then, at the time of purchase, the user could follow simple instructions provided to download activation software that could be customized for their use by means of selection of various parameters. The user could also select an automatic function to upload their treatment data to a database for additional review by their physician or for their personal review.

Periodically, the user can also confirm that their instrument is operating at peak level so they could elect to schedule a period diagnostic “tune up” or test where in the unit is connected to an online interface to conduct a testing routine. The user could also elect to install the latest version of their software. They may be offered as an enhanced feature for a monthly subscription etc.

It is realized that multiple areas of the human body have different and often unique anatomical composition, physiology, and form. Applications employing the disclosed technology will vary between other anatomical areas of the body and between species. This technology is envisioned and claimed to be unique for different species such as canine, equine, avian, reptilian, and etc. Therefore, it should be understood that treatment energy ingredients, treatment parameters, composition, and delivery algorithms can be unique and proprietary to species, area, and condition.

In an aspect, a handheld treatment device can be in communication with a base station for charging, data transfer, and/or storage. As an example, the base station or docking station can provide processors, memory, storage, network connectivity, and/or automated detections of user port and sign in with bi-directional information exchange and period update of software or repair and user diagnostics.

In an aspect, the concept of “wisdom of crowds” suggests that decisions resulting in data from a large population are often better than that of a single member. In addition, cloud technology enables information to be collected in one access point for multiple users across various platforms.

In an aspect, the system and method of the present disclosure can be used to create a pain search engine based on the wisdom of crowds in a depository where it can be evaluated, articulated, and delivered to other members in an online technotherapy setting.

As an example, a technotherapy device (e.g., therapy device12) can be distributed without any operating instructions installed at the time of purchase. The device could be delivered to users at a lower cost and when the user wished to use the device, the use would be required to apply for registration, at which time certain software would be installed in the device by means of a Wi-Fi or other communication connection. Information can be transmitted to the cloud depository where the software and user records were stored. Such software would have varying technological and therapeutic capabilities. For example, a user may wish to op for therapy for a certain problem like arthritis of the knee. This software may be available at a certain cost per month or cost per therapy session. And the pricing could be adjusted based on the services provided; from therapy only to therapy with data capture and diagnostic review. In essence, the user could select from a menu of technotheraputic services.

In an aspect, the present system can provide the basis of uniform data collection resulting in greater compliance by the patient population resulting in more desirable patient outcomes. As an example, the following process can summarizes an exemplary treatment procedure:1. therapy device is connected to a network;2. a self-diagnosis patient profile or patient profile is generated;3. patient record is populated with user information;4. a selection of therapeutic services (e.g., by subscription) is received;5. initial user interface is downloaded to the device;6. device can be calibrate for a particular user, wherein the device collects various information from the skin surface which is uploaded to the host application;7. data is presented to the host application which conducts various evaluation analysis and presents the data to the “pain search engine” comparing the users data with that of other users in the “pain cloud;”8. generating a search from the “pain universe” and creating a customized treatment for the user for the initial treatment session;9. data is collected from the skin surface or other data collection parameters that may be available with the user's level of service and scored and compared with the data from the pain cloud Veriscription population; and10. user's record is updated producing reports for diagnostic, reporting, and evaluation purpose.

From the foregoing description, one ordinarily skilled in the art can easily ascertain the essential characteristics of this invention and, without departing from the spirit and scope thereof, make various changes and modifications to the invention to adapt it to various usages and conditions. It will be apparent to those skilled in the art that various modifications and variations can be made without departing from the scope or spirit. Other embodiments will be apparent to those skilled in the art from consideration of the specification and practice disclosed herein. It is intended that the specification and examples be considered as exemplary only, with a true scope and spirit being indicated by the following claims.