Abstract: Several methods and devices are provided herein to generate shock waves that are used in the oil industry for well drilling, hydrocarbon or gas exploitation, fracking process or improved oil recovery (IOR), enhanced oil recovery (EOR), cleaning of process waters, oil spills byproducts and oil pipes, which can be used as independent systems or as auxiliary systems concomitantly with other existing technologies. The different devices consist of generating shock waves utilizing either one or more laser sources, or a self-generated combustible gas supply, or a micro-explosive pellet, or piezocrystals, or a piezofiber composite structure.

Abstract: A shock wave applicator includes a housing multiple reflectors with shock wave generators projecting into a shared cavity. The multiple shock wave generators are able to produce a variety of shockwave focal volumes and wave fronts for medical treatment.

Abstract: This invention includes methods for cleaning and tenderizing animal meat with shock waves by submerging animal meat in a volume of fluid in a treatment tank including a shock wave applicator with a focal volume in the volume of fluid, and applying a pressure shock wave pulses to the animal meat from the shock wave applicator in sufficient amounts to eliminate biological contaminants and/or tenderize the animal meat.

Abstract: This invention includes methods for cleaning and sterilizing tissue harvested for implant with shock waves by submerging the harvested tissue in a volume of fluid in a holding vessel including a shock wave applicator with a focal volume in the volume of fluid, and applying a pressure shock wave pulses to the harvested tissue from the shock wave applicator in sufficient amounts to eliminate biological contaminants in the harvested tissue.

Abstract: Stem cells are proliferated with the application of acoustic pressure waves, including cambium cells of periosteum treated in-vivo with acoustic pressure waves. Following harvesting and viability assessment of in-vivo or in-vitro proliferated stem cells, acoustic pressure waves are applied to enhance in-vivo or in-vitro differentiation either before or after implantation of the stems cells to an organism. Acoustic pressure waves also stimulate an implantation site to enhance viability and to grow desired tissue.

Abstract: Shock waves are applied to clean and sterilize fluids in containers and conveyances. Shock waves destroy pathogens and pollutants in blood, water, food liquids and other fluids.

Abstract: A shock wave applicator includes a shock wave generator and an asymmetrical reflector portion in a housing. Asymmetry of the reflector portion is combined with one or more wave generators to produce a variety of focal volumes and wave fronts for medical treatment.

Abstract: A shock wave applicator includes a shock wave generator and an asymmetrical reflector portion in a housing. Asymmetry of the reflector portion is combined with one or more wave generators to produce a variety of focal volumes and wave fronts for medical treatment.

Abstract: Shock waves are applied to clean and sterilize fluids in containers and conveyances. Shock waves destroy pathogens and pollutants in blood, water, food liquids and other fluids.

Abstract: Stem cells are proliferated with the application of acoustic pressure waves, including cambium cells of periosteum treated in-vivo with acoustic pressure waves. Following harvesting and viability assessment of in-vivo or in-vitro proliferated stem cells, acoustic pressure waves are applied to enhance in-vivo or in-vitro differentiation either before or after implantation of the stems cells to an organism. Acoustic pressure waves also stimulate an implantation site to enhance viability and to grow desired tissue.

Abstract: Shock waves are applied to clean and sterilize fluids in containers and conveyances. Shock waves destroy pathogens and pollutants in blood, water, food liquids and other fluids.

Abstract: A shock wave applicator includes a shock wave generator and an asymmetrical reflector portion in a housing. Asymmetry of the reflector portion is combined with one or more wave generators to produce a variety of focal volumes and wave fronts for medical treatment.

Abstract: A medical treatment system includes an electronic controller with a medical treatment apparatus, a data reader, an ancillary treatment apparatus used with the electronic medical treatment apparatus and a data storage medium associated with the ancillary treatment apparatus. The controller is configured to receive information from the data storage medium, and to control the medical treatment apparatus with medical treatment parameters compatible with the desired medical treatment and the ancillary treatment apparatus.

Abstract: A medical treatment system includes an electronic controller with a medical treatment apparatus, a data reader, an ancillary treatment apparatus used with the electronic medical treatment apparatus and a data storage medium associated with the ancillary treatment apparatus. The controller is configured to receive information from the data storage medium, and to control the medical treatment apparatus with medical treatment parameters compatible with the desired medical treatment and the ancillary treatment apparatus.

Abstract: In a delivery catheter, first and second pods cover one or more prosthetic implants located around a central core, and are connected with one another to move as a unit and to present a continuous outer surface. Two independent release links, each extending from a proximal region of the delivery catheter to an interface with the first and second pods, respectively, and operative to displace the first and second pod, respectively. Applying tension to the release links releases the associated pod, either by displacing it from over the implant or rupturing the exterior of the pod. A user-operable handle at a proximal end of the delivery catheter can activate either or both independent release links. Also provided according to the present invention is a method for the deployment of a prosthetic implant.

Abstract: A handle system of a delivery catheter for the deployment of prosthetic implants includes a first stationary portion, at least one guide rail secured to the first stationary portion and extending generally longitudinally with the handle system, and a generally cylindrical second rotating portion rotably connected to the first stationary portion. A sheath mount is secured to an outer sheath of the delivery catheter, and includes one or more bearing surfaces to engage with at least one of the one or more guide rails. Rotation of the second rotating portion longitudinally displaces the sheath mount by interaction with the sheath mount. Interaction may be by internal thread of the rotating portion and external thread of the sheath mount, or alternately by rotating one or more drive screws by turning the rotating portion, the drive screws interacting with through holes in the sheath mount configured to receive and engage the drive screws.

Abstract: Methods, systems, and computer program products for providing thermal therapies or internal thermal massage therapy for treating prostatitis by expanding and contracting a treatment balloon with inflation media and currently applying heat to a portion of the prostatic urethra.

Abstract: Methods, systems and computer program products include pressure monitoring and pressure adjustment devices in closed loop systems which control and adjust the pressure in a closed loop system configured to circulate heated liquid to a treatment balloon and concurrently heats and exerts pressures onto targeted tissue. The systems and methods can adjust the pressure to account for the physiology of the subject and the operational losses due to material relaxation over the duration of the thermal treatment.

Abstract: Methods, systems, and computer program products for obtaining a sample in vivo and/or treating a subject include positioning an elongated transurethral catheter in the prostatic urethra of a subject, the catheter having a bladder anchoring balloon, at least one biosample entry port disposed axially away from the bladder anchoring balloon, and an axially extending biosample flow channel in fluid communication with the biosample entry port held internally in the catheter. The anchoring balloon is inflated to position the catheter so that the fluid entry port is proximate the prostatic urethra of the subject and prostatic fluid is suctioned from the prostatic urethra into the biosample entry port and into the biosample flow channel. The catheter can include a thermal treatment balloon and/or dilatation balloon and the suctioned sample can be obtained concurrently with, during, or proximate in time to the applied treatment.

Abstract: Methods, systems and computer program products include modular single-use disposable catheter assemblies with cassettes configured to matably engage with a console to circulate liquid to a treatment balloon in a closed loop circulation system. The console is portable, compact, and can be programmed to administer a plurality of different therapy types and to engage with different catheter configurations via the cassette body.