274 results about "Pain reduction" patented technology

Methods and devices that provide ultrasonic energy used to cause one or more nerves to become dysfunctional. A nerve to be treated is placed in the focal zone of ultrasonic energy emitted by ultrasound transducer. A first level of ultrasonic energy is provided to the nerve using the ultrasound transducer, the first level sufficient to stimulate the nerve. A verification is made that the desired nerve is being stimulated by the first level of ultrasonic energy. For example, the patient may be asked to confirm that the ultrasonically stimulated nerve corresponds to the pain that is affecting the patient. Subsequent to verifying the stimulated nerve is the nerve desired for the reduction of pain, a second level of ultrasonic energy is delivered to the nerve using the ultrasound transducer, the second level of ultrasonic energy sufficient to cause nerve dysfunction.

Systems and methods provide baroreflex activation to treat or reduce pain and/or to cause or enhance sedation or sleep. Methods involve activating the baroreflex system to provide pain reduction, sedation, improved sleep or some combination thereof. Systems include at least one baroreflex activation device, at least one sensor for sensing physiological activity of the patient, and a processor coupled with the baroreflex activation device(s) and the sensor(s) for processing sensed data received from the sensor and for activating the baroreflex activation device. In some embodiments, the system is fully implantable within a patient, such as in an intravascular, extravascular or intramural location.

Systems and methods for introducing one or more stimulating drugs and/or applying electrical stimulation to the brain to alleviate pain use at least one implantable system control unit (SCU), producing electrical pulses delivered via electrodes implanted in the brain and/or producing drug infusion pulses, wherein the stimulation is delivered to targeted areas in the brain. In some embodiments, one or more sensed conditions are used to adjust stimulation parameters.

This is a new invention, including improvements upon existing inventions, which is safer, simpler to use, less invasive into a user's daily routine and provides a lower cost solution to existing pulsed magnetic field and related vibrational electromagnetic therapy devices. This invention (apparatus) is referred to as an EnergyWave Therapy Device to distinguish it from existing electromagnetic therapy devices. It operates non-invasively on a homeopathic level to improve sleep, encourage natural healing and reduce pain, swelling, and general discomfort. This is accomplished through different embodiments of the apparatus all of which generate Multiple Simultaneous Extremely Low Frequency (MSELF) energy waves which may be any combination of Alternating Polarity Magnetic Fields (APMF), narrowband near-coherent long-wavelength (580 nm to 980 nm) light emitting diodes (LEDs), or electrical vibrations transmitted through the medium of water using carbon rod electrodes. The MSELF vibrations are derived from a quartz crystal with a fundamental frequency less than one-half of one percent from a natural Fibonacci Sequence Number. The apparatus utilizes firmware operating in a microcontroller containing predefined, user selectable therapy programs either emulating natural Circadian Rhythms for sleep and rest, or other therapeutic programs, all of which contain Electromagnetic Field (EMF) dose limitations to prevent any possible overexposure. The microcontroller is also clocked at the same fundamental frequency generated by the Fibonacci Sequence Quartz Crystal. Additionally, the apparatus's unique application of an H-Bridge configuration power-driver with Pulse Width Modulation (PWM) capabilities supports a novel approach to supply two simultaneous therapeutic frequencies to either a copper-trace coil emitter integrated on the main Printed Circuit Board (PCB) or optional external energy emitters. The result is a more effective, lower energy, safer, lower cost, simpler to use, noninvasive, multi-modal, EnergyWave Therapy Device.

A non-contact mechanism for encouraging and facilitating incentive spirometry, ensuring that it is performed adequately, in a timely manner, and for a sufficient duration is discussed. The embodiments also quantitatively and qualitatively keep a record of the incentive spirometry activity, including recording the performance in an electronic medical record. A non-contact monitoring system is used to generate a breathing waveform for a subject that may be compared to target waveforms. Visual and non-visual cues may then be provided to the subject to help guide the subject towards the desired breathing pattern.

Oral dosage forms of osteoclast inhibitors, such as nitrogen-containing bisphosphonates, can be used to treat or alleviate pain or related conditions.

Many medical procedures, such as needle-sticking, could benefit from an assistive device that improves the optical contrast of externally targeted features and lumens of interest residing in and underneath the skin and/or exposed organ tissues. The inventive inexpensive device and method are useable on such externally targeted features and lumens while also protecting the practitioner and freeing up both of his/her hands, if necessary, to thereby eliminate practitioner self-sticking problems. The present device provides good optical contrast and also provides splash-protection against HIV, hepatitis and other blood-borne diseases. The inventive device method and apparatus may also include vibratory subcutaneous electrical nerve stimulation (TENS), drug-based or heating treatment capabilities for reducing pain, both perceived and real pain, associated with a device guided procedure. Finally, the pain reduction mechanisms have also been found useful for lumen dilation.

The present invention is directed to methods and compositions for inducing, promoting or otherwise facilitating pain relief. More particularly the present invention discloses the combination of a nitric oxide donor and an opioid analgesic in the therapeutic management of vertebrate animals including humans, for the prevention or alleviation of pain, particularly moderate to severe pain. In particular, the nitric oxide donor is a slow-release nitric oxide donor or is formulated to provide a sustained release of a low dose of nitric oxide.

Techniques are provided for generating pre-pulse pain inhibition (PPI) pulses and subsequent main cardioversion shocks. The PPI pulses are relatively low-voltage pulses each having a chevron-shaped waveform. The main shocks are relatively high-voltage shocks each having a plateau-shaped waveform. By employing plateau-shaped waveforms for the main shocks, a greater cardiac membrane response can be achieved at an equivalent peak voltage as compared to conventional shock waveforms. Peak voltage is a significant contributor to pain caused by cardioversion shocks. Hence, by using the plateau-shaped waveform, pain reduction can be achieved without loss of shock effectiveness. Moreover, by employing chevron-shaped PPI pulses in combination with plateau-shaped main shocks, a relatively simple shocking circuit having a single high-voltage shocking capacitor may be used, thus eliminating the need for both low-voltage PPI capacitors and higher voltage main shock capacitors. The shocking circuit includes a low-pass resistive-capacitive filter.

The present invention relates to new plasma or new platelet-rich plasma preparations, new cell dissociation methods, new cell associations or compositions, a method of preparation thereof, a use thereof, devices for the preparation thereof and preparations containing such a platelet-rich plasma preparation and cell associations or compositions. Specifically, the invention provides compositions comprising plasma or platelet-rich plasma alone or in combination with cell preparations for use in tissue regeneration and bone regeneration and pain reduction.

The present invention is direct to a method of producing analgesia in a mammalian subject. The method includes administering to the subject an omega conopeptide, preferably ziconotide, in combination with an analgesic selected from the group consisting of morphine, bupivicaine, clonidine, hydromorphone, baclofen, fentanyil, buprenorphine, and sufentanil, or its pharmaceutically acceptable salts thereof, wherein the ω-conopeptide retains its potency and is physically and chemically compatible with the analgesic compound. A preferred route of administration is intrathecal administration, particularly continuous intrathecal infusion. The present invention is also directed to a pharmaceutical formulation comprising an omega conopeptide, preferably ziconotide, in combination with an analgesic selected from the group consisting of morphine, bupivicaine, clonidine, hydromorphone, baclofen, fentanyl, buprenorphine, and sufentanil.

A target-treating system treats a target disposed within a bone of a patient. The system comprises a probe configured to be inserted into the bone and navigated therethrough toward the target. The probe comprises a shaft that includes a proximal end, a distal end, and a main body extending between and interconnecting the proximal end and the distal end. The distal end is configured to engage the target such that, upon activation of the probe, the target is treated.

The invention provides for compositions and methods of reducing pain in a subject by administering a combination of mu-opioid receptor agonist, kappa1-opioid receptor agonist and a nonselective opioid receptor antagonist in amounts effective to reduce pain and ameliorate an adverse side effect of treatment combining opioid-receptor agonists. The invention also provides for methods of enhancing an analgesic effect of treatment with an opioid-receptor agonist in a subject suffering from pain while reducing an adverse side effect of the treatment. The invention also provides for methods of reducing the hyperalgesic effect of treatment with an opioid-receptor agonist in a subject suffering from pain while reducing an adverse side effect of the treatment. The invention further provides for methods of promoting the additive analgesia of pain treatment with an opioid-receptor agonist in a subject in need while reducing an adverse side effect of the treatment.

The present invention relates to a method for topical treatment of pain resulting from a sports injury, including injuries to bones and soft tissue, such as ligaments, muscles or tendons. The method includes the steps of: applying to skin of a subject suffering from pain resulting from a sports injury a transdermal drug delivery system comprising a formulation comprising a pain-relieving amount of a local anesthetic and a pharmaceutically acceptable carrier, wherein the transdermal drug delivery system is applied to a skin site proximate to or in the region of a sports injury, and relieving the pain. The concentrated local anesthetic in the patch penetrates deeply below the skin to the injury site to inhibit pain receptors throughout the damaged body tissue.

A method in which a location is determined on the skin that is proximate to a sensory nerve that is associated with a painful condition. At least one needle of a cryogenic device is inserted into the location on the skin such that the needle is proximate to the sensory nerve. The device is activated such that the at least one needle creates a cooling zone about the sensory nerve, thereby eliminating or reducing severity of the painful condition.

The present invention is directed to a method of treating pain. The method comprises administering to a subject a pharmaceutical composition comprising an effective amount of a P2X receptor antagonist. The methods of the present invention are useful in reducing pain, such as traumatic pain, neuropathic pain, organ pain and pain associated with diseases. The P2X receptor antagonists particularly useful for this invention are mononucleoside polyphosphate derivatives or dinucleoside polyphosphate derivatives of general Formula I. The compounds of the present method can be used alone to treat pain. The compounds of the present method can also be used in conjunction with other therapeutic agents or adjunctive therapies commonly used to treat pain, thus enhancing the overall pain-reducing effect in a subject in need of such treatment.

Loxapine, amoxapine, or salts or prodrugs of either, is effective in alleviating pain, particularly headache pain such as migraine, cluster headaches and tension headaches. Preferably the loxapine or amoxapine is administered systemically, most preferably by inhalation.