Abstract: A hair dryer apparatus and method for use in hair care. The apparatus preferably includes a nozzle, a housing, an ion generator disposed within the housing, and an ozone generator disposed within the housing. Further, disposed within the apparatus may be a circuit board, which is in electronic communication with at least three control buttons, a microprocessor, a liquid crystal display, and a voltage regulator.

Abstract: A hair iron apparatus preferably includes an upper housing pivotally associated with a lower housing. A first heat transfer plate is associated with the upper housing and a second heat transfer plate is associated with the lower housing. A first heater is affixed to the first heat transfer plate by a first adhesive, and a second heater is affixed to the second heat transfer plate by a second adhesive.

Abstract: A hair dryer apparatus and method for use in hair care. The apparatus preferably includes a therapeutic housing having at least one near infrared emitting diode, a nozzle, and a housing. Further, disposed within the apparatus may be a circuit board, which is in electronic communication with at least three control buttons, a microprocessor, a liquid crystal display, and a voltage regulator.

Abstract: The current invention relates to a process for increasing the efficacy of cancerous disease inhibiting therapeutic agents delivered to a treatment region of a tissue structure, such as a tumor. The multi-step procedure takes advantage of the resulting thermal stress response occurring as a result of exposure to the cold. Coordinating the thermal related stress response with the timing of cancerous disease inhibiting agent action provides a unique therapeutic regiment to treat tumors which provides a maximized effect on the tumor, protects normal cells, and activates local pro-inflammatory cells.

Abstract: A hair iron apparatus preferably includes an upper housing pivotally associated with a lower housing. A first heat transfer plate is associated with the upper housing and a second heat transfer plate is associated with the lower housing. A first heater is affixed to the first heat transfer plate by a first adhesive, and a second heater is affixed to the second heat transfer plate by a second adhesive.

Abstract: The current invention relates to a process for increasing the efficacy of cancerous disease inhibiting therapeutic agents delivered to a treatment region of a tissue structure, such as a tumor. The multi-step procedure takes advantage of the resulting thermal stress response occurring as a result of exposure to the cold. Coordinating the thermal related stress response with the timing of cancerous disease inhibiting agent action provides a unique therapeutic regiment to treat tumors which provides a maximized effect on the tumor, protects normal cells, and activates local pro-inflammatory cells.

Abstract: A hair iron apparatus preferably includes an upper housing pivotally associated with a lower housing. A first heat transfer plate is associated with the upper housing and a second heat transfer plate is associated with the lower housing. A first heater is affixed to the first heat transfer plate by a first adhesive, and a second heater is affixed to the second heat transfer plate by a second adhesive.

Abstract: A hair dryer apparatus and method for use in hair care. The apparatus preferably includes a therapeutic housing having at least one near infrared emitting diode, a nozzle, and a housing. Further, disposed within the apparatus may be a circuit board, which is in electronic communication with at least three control buttons, a microprocessor, a liquid crystal display, and a voltage regulator.

Abstract: Disclosed are microcapsules comprising a polymer shell enclosing one or more immiscible liquid phases in which a drug or drug precursor are contained in a liquid phase. The microparticles also contain magnetic particles that can be heated by application of an external magnetic field and thus heated to a predetermined Curie temperature. Heating of the particles melts the polymer shell and releases the drug without causing heating of surrounding tissues.

Abstract: A hair dryer apparatus and method for use in hair care. The apparatus preferably includes a nozzle, a housing, an ion generator disposed within the housing, and an ozone generator disposed within the housing. Further, disposed within the apparatus may be a circuit board, which is in electronic communication with at least three control buttons, a microprocessor, a liquid crystal display, and a voltage regulator.

Abstract: A hair iron apparatus preferably includes an upper housing pivotally associated with a lower housing. A first heat transfer plate is associated with the upper housing and a second heat transfer plate is associated with the lower housing. A first heater is affixed to the first heat transfer plate by a first adhesive, and a second heater is affixed to the second heat transfer plate by a second adhesive.

Abstract: A microencapsulation apparatus is provided which is configured to form co-axial multi-lamellar microcapsules from materials discharged from first and second microsphere dispensers of the apparatus. A method of fabricating and processing microcapsules is also provided which includes forming distinct droplets comprising one or more materials and introducing the droplets directly into a solution bath to form a membrane around the droplets such that a plurality of microcapsules are formed. A microencapsulation system is provided which includes a microcapsule production unit, a fluidized passage for washing and harvesting microcapsules dispensed from the microcapsule production unit and a flow sensor for sizing and counting the microcapsules. In some embodiments, the microencapsulation system may further include a controller configured to simultaneously operate the microcapsule production unit, fluidized passage and flow sensor to process the microcapsules in a continuous manner.

Abstract: Antibodies have been developed against the different molecular forms of urokinase using synthetic peptides as immunogens. The peptides were synthesized specifically to represent those regions of the urokinase molecules which are exposed in the three-dimensional configuration of the molecule and are uniquely homologous to urokinase. Antibodies are directed against the lysine 158-isoleucine 159 peptide bond which is cleaved during activation from the single-chain (ScuPA) form to the bioactive double chain (54 KDa and 33 KDa) forms of urokinase and against the lysine 135 lysine 136 bond that is cleaved in the process of removing the alpha-chain from the 54 KDa form to produce the 33 KDa form of urokinase. These antibodies enable the direct measurement of the different molecular forms of urokinase from small samples of conditioned medium harvested from cell cultures.

Abstract: The current invention relates to a process for increasing the efficacy of cancerous disease inhibiting therapeutic agents delivered to a treatment region of a tissue structure, such as a tumor. The multi-step procedure takes advantage of the resulting thermal stress response occurring as a result of exposure to the cold. Coordinating the thermal related stress response with the timing of cancerous disease inhibiting agent action provides a unique therapeutic regiment to treat tumors which provides a maximized effect on the tumor, protects normal cells, and activates local pro-inflammatory cells.

Abstract: A device for analyzing microparticles is provided which includes a chamber with an inlet and an outlet for respectively introducing and dispensing a flowing fluid comprising microparticles, a light source for providing light through the chamber and a photometer for measuring the intensity of light transmitted through individual microparticles. The device further includes an imaging system for acquiring images of the fluid. In some cases, the device may be configured to identify and determine a quantity of the microparticles within the fluid. Consequently, a method for identifying and tracking microparticles in motion is contemplated herein. The method involves flowing a fluid comprising microparticles in laminar motion through a chamber, transmitting light through the fluid, measuring the intensities of the light transmitted through the microparticles, imaging the fluid a plurality of times and comparing at least some of the intensities of light between different images of the fluid.

Abstract: A microencapsulation apparatus is provided which is configured to form co-axial multi-lamellar microcapsules from materials discharged from first and second microsphere dispensers of the apparatus. A method of fabricating and processing microcapsules is also provided which includes forming distinct droplets comprising one or more materials and introducing the droplets directly into a solution bath to form a membrane around the droplets such that a plurality of microcapsules are formed. A microencapsulation system is provided which includes a microcapsule production unit, a fluidized passage for washing and harvesting microcapsules dispensed from the microcapsule production unit and a flow sensor for sizing and counting the microcapsules. In some embodiments, the microencapsulation system may further include a controller configured to simultaneously operate the microcapsule production unit, fluidized passage and flow sensor to process the microcapsules in a continuous manner.

Abstract: Microcapsules prepared by encapsulating an aqueous solution of a protein, drug or other bioactive substance inside a semi-permeable membrane by are disclosed. The microcapsules are formed by interfacial coacervation under conditions where the shear forces are limited to 0-100 dynes/cm2 at the interface. By placing the microcapsules in a high osmotic dewatering solution, the protein solution is gradually made saturated and then supersaturated, and the controlled nucleation and crystallization of the protein is achieved. The crystal-filled microcapsules prepared by this method can be conveniently harvested and stored while keeping the encapsulated crystals in essentially pristine condition due to the rugged, protective membrane. Because the membrane components themselves are x-ray transparent, large crystal-containing microcapsules can be individually selected, mounted in x-ray capillary tubes and subjected to high energy x-ray diffraction studies to determine the 3-D structure of the protein molecules.

Abstract: Microcapsules prepared by encapsulating an aqueous solution of a protein, drug or other bioactive substance inside a semi-permeable membrane by are disclosed. The microcapsules are formed by interfacial coacervation under conditions where the shear forces are limited to 0-100 dynes/cm2 at the interface. By placing the microcapsules in a high osmotic dewatering solution, the protein solution is gradually made saturated and then supersaturated, and the controlled nucleation and crystallization of the protein is achieved. The crystal-filled microcapsules prepared by this method can be conveniently harvested and stored while keeping the encapsulated crystals in essentially pristine condition due to the rugged, protective membrane. Because the membrane components themselves are x-ray transparent, large crystal-containing microcapsules can be individually selected, mounted in x-ray capillary tubes and subjected to high energy x-ray diffraction studies to determine the 3-D structure of the protein molecules.

Abstract: The invention is directed to microcapsules encapsulating an aqueous solution of a protein, drug or other bioactive substance inside a semi-permeable membrane. The microcapsules are formed by interfacial coacervation where shear forces are limited to 0-100 dynes per square centimeter. The resulting uniform microcapsules can then be subjected to dewatering in order to cause the internal solution to become supersaturated with the dissolved substance. This dewatering allows controlled nucleation and crystallization of the dissolved substance. The crystal-filled microcapsules can be stored, keeping the encapsulated crystals in good condition for further direct use in x-ray crystallography or as injectable formulations of the dissolved drug, protein or other bioactive substance.

Abstract: Microcapsules prepared by encapsulating an aqueous solution of a protein, drug or other bioactive substance inside a semi-permeable membrane by are disclosed. The microcapsules are formed by interfacial coacervation under conditions where the shear forces are limited to 0-100 dynes/cm2 at the interface. By placing the microcapsules in a high osmotic dewatering solution, the protein solution is gradually made saturated and then supersaturated, and the controlled nucleation and crystallization of the protein is achieved. The crystal-filled microcapsules prepared by this method can be conveniently harvested and stored while keeping the encapsulated crystals in essentially pristine condition due to the rugged, protective membrane. Because the membrane components themselves are x-ray transparent, large crystal-containing microcapsules can be individually selected, mounted in x-ray capillary tubes and subjected to high energy x-ray diffraction studies to determine the 3-D structure of the protein molecules.