Abstract: A propellant flow actuated piezoelectric igniter device using one or more hammer balls retained by one or more magnets, or other retaining method, until sufficient fluid pressure is achieved in one or more charging chambers to release and accelerate the hammer ball, such that it impacts a piezoelectric crystal to produce an ignition spark. Certain preferred embodiments provide a means for repetitively capturing and releasing the hammer ball after it impacts one or more piezoelectric crystals, thereby oscillating and producing multiple, repetitive ignition sparks. Furthermore, an embodiment is presented for which oscillation of the hammer ball and repetitive impact to the piezoelectric crystal is maintained without the need for a magnet or other retaining mechanism to achieve this oscillating impact process.

Abstract: A propellant flow actuated piezoelectric igniter device using one or more hammer balls retained by one or more magnets, or other retaining method, until sufficient fluid pressure is achieved in one or more charging chambers to release and accelerate the hammer ball, such that it impacts a piezoelectric crystal to produce an ignition spark. Certain preferred embodiments provide a means for repetitively capturing and releasing the hammer ball after it impacts one or more piezoelectric crystals, thereby oscillating and producing multiple, repetitive ignition sparks. Furthermore, an embodiment is presented for which oscillation of the hammer ball and repetitive impact to the piezoelectric crystal is maintained without the need for a magnet or other retaining mechanism to achieve this oscillating impact process.

Abstract: A new wind resisting electricity generator that floats offshore supported by buoyancy-providing used tires filled with waterproof foam. Electricity is generated through water turbines, uniformly rotated using waves and under water currents, and through directional wind turbines. Used tires are mounted on a mechanical and electrical utilities structure and a wind energy structure to interrupt wind flow near water surfaces in onshore directed weather. Dummy floats that provide protection from floating debris for the water turbines and direct waves to the upper turbine blades are alternated with generator floats in a line offshore and are held together with connecting chains and recycled tires mounted on the connecting chains.

Abstract: An improvement in table saw safety is provided, being a new and improved apparatus and method for stopping the blade of a saw very quickly, thereby preventing serious harm to the operator of the saw. The saw brake senses the approach of a conductive element, such as a finger or a hand, to the saw blade, and immediately stops the saw.

Abstract: A propellant flow actuated piezoelectric igniter device using one or more hammer balls retained by one or more magnets, or other retaining method, until sufficient fluid pressure is achieved to release and accelerate the hammer ball, such that it impacts a piezoelectric crystal to produce an ignition spark. Certain preferred embodiments provide a means for repetitively capturing and releasing the hammer ball after it impacts one or more piezoelectric crystals, thereby oscillating and producing multiple, repetitive ignition sparks. Furthermore, an embodiment is presented for which oscillation of the hammer ball and repetitive impact to the piezoelectric crystal is maintained without the need for a magnet or other retaining mechanism to achieve this oscillating impact process.

Abstract: A hurricane and tornado surface wind pattern disrupter and vehicle barrier has carbon steel plates, each mounting plural used tires. Tires are connected to opposite sides of the mounting plates with bolts, washers and nuts. The bolts extend through sidewalls of the tires or through gripper strips in slots in the plates. Ends of gripper strips hold the tire walls against the plates. Clamps connected to the bolts engage inner walls of the tires and hold the tires against the plates. Lateral edges of the plates are positioned inward from the tires. Downward extensions of the mounting plates are connected to fixed reinforced structures. When the plates are connected to tops of lane dividing jersey wall sections, the plates and tires assemblies form a continuously interrupted wall or ribbon for interference with strong surface wind patterns and for disruption and diminution of the wind forces.

Abstract: Hazardous process gases are heated to auto ignition temperatures by rods and cylinders in a heating chamber. The heated gases and oxygen mix in a combustion chamber, and the gases ignite and combust. Air is introduced to cool the hot combustion products. Particles are separated from the cooled gases. Pure non hazardous gases and air are exhausted.

Abstract: A three dimensional floating structure is formed of interconnected sealed pipes. Large tires are filled with foam, sealed and arranged side by side on the lowest horizontal pipes. A deck supports activities. Structures on sides at a water surface trap floating substances. Offset hinged plates connect modules, forming large structures. Wind redirectors are mounted on plural levels. Windmill pumps draw cool deep water and spray water to disrupt wind energy, cool the surface and concentrate floating substances. The windmills drive turbine generators directly by pumping water to storage tanks and discharging the water through penstocks to drive hydro-electric turbine generators. Excess power is transmitted through cables to onshore power grids. The floating structures provide oil recovery and wind de-energizing, water and waste treatment and residential and recreational activities.

Abstract: Hazardous process gases are heated to auto ignition temperatures by rods and cylinders in a heating chamber. The heated gases and oxygen mix in a combustion chamber, and the gases ignite and combust. Air is introduced to cool the hot combustion products. Particles are separated from the cooled gases. Pure non hazardous gases and air are exhausted.

Abstract: A propellant flow actuated piezoelectric igniter device using one or more hammer balls retained by one or more magnets, or other retaining method, until sufficient fluid pressure is achieved to release and accelerate the hammer ball, such that it impacts a piezoelectric crystal to produce an ignition spark. Certain preferred embodiments provide a means for repetitively capturing and releasing the hammer ball after it impacts one or more piezoelectric crystals, thereby oscillating and producing multiple, repetitive ignition sparks. Furthermore, an embodiment is presented for which oscillation of the hammer ball and repetitive impact to the piezoelectric crystal is maintained without the need for a magnet or other retaining mechanism to achieve this oscillating impact process.

Abstract: A hazardous gas abatement system decontaminates an exit gas stream containing global warming gases using an electrical heater and a water scrubber. One or more top flow hazardous gas inlets introduce hazardous gases into a heater compartment. Air or oxygen is introduced into a separate chamber for dynamic oxidation and cooling. The streams are mixed and oxygen reacts with the hazardous gases. Solid particulates from the reaction are removed by a filter in a quick disconnect bottom chamber. Filtered exhaust gases flow upward in an exhaust chamber surrounding the heater compartment and through water spray scrubbers. A cleaning ring mounted on an eccentric rod cleans particles from the outside of the internal heater, and the inside of the external heater. An air cylinder drives the eccentric rod and cleaning ring down and up between the heaters and stores the ring above the gas inlets.

Abstract: A table saw guard has opposed rubber fingers extending from opposite supports. The fingers meet near slots in a saw table along a saw slot and provide visual and tactile warning of approaching the saw blade. The fingers bend as a board is pushed into contact with a saw. Friction between the bent fingers and the board resist unwanted bounce-back of the board while being sawed.

Abstract: A hazardous gas abatement system decontaminates an exit gas stream containing global warming or contaminant gases using an electrical heater compartment and a water scrubber or dry chemicals in a tank. One or more top flow hazardous gas inlets introduce hazardous gases into a heater compartment. Air or oxygen is heated in a separate chamber surrounding the heater compartment. The heated streams are mixed and oxygen reacts with the hazardous gases. Solid particulates and heat are removed by a filter in a quick disconnect tank. Gas flows through an outer chamber insulated from surrounding the heater compartment and through water spray scrubbers or chemical agents. A heat exchanger surrounds the outer chamber. A moving cleaning ring cleans particles from the heater compartment. An air cylinder drives the cleaning ring up and down.

Abstract: A hazardous gas abatement system decontaminates an exit gas stream containing global warming gases using an electrical heater and a water scrubber. One or more top flow hazardous gas inlets introduce hazardous gases into a heater compartment. Air or oxygen is introduced into a separate chamber for dynamic oxidation and cooling. The streams are mixed and oxygen reacts with the hazardous gases. Solid particulates from the reaction are removed by a filter in a quick disconnect bottom chamber. Filtered exhaust gases flow upward in an exhaust chamber surrounding the heater compartment and through water spray scrubbers. A cleaning ring mounted on an eccentric rod cleans particles from the outside of the internal heater, and the inside of the external heater. An air cylinder drives the eccentric rod and cleaning ring down and up between the heaters and stores the ring above the gas inlets.

Abstract: Hazardous gas abatement apparatus combines and directly couples a chemical agent treatment tank and a dynamic oxidation chamber with a quick connect clamp. Cleaning the chamber and filter and emptying and replacing the chemical agent take place without disconnecting or otherwise disturbing gas, air and exhaust connections.

Abstract: An apparatus includes a housing into which a hazardous gas is introduced. A sleeve in the housing includes a perforate segment into which the gas is discharged along with flows of oxygen delivered from sleeve mounted nozzles. Particles forming in a sleeve defined mixing zone gravitate toward a first collection site within the housing. Within the housing are radially spaced tubular members through which the gas and oxygen mixture flows in a serpentine path with provision for the collection of particles precipitating from the flow adjacent one end of the housing. Metallic fibers render any gas collection in the housing inert. Provision is made for delivering, in the alternative, a pressurized air flow to the sleeve for oxidizing the hazardous gas flow utilizing ambient air. A diffuser plate imparts current to the ambient air discharged into the sleeve.

Abstract: An apparatus defines a chamber into which hazardous gas is discharged. Disposed about the hazardous gas discharge flow are nozzles from which oxygen flows for mixing with the hazardous gas. A structure within the chamber receives the hazardous gas and oxygen and defines an area in which a reaction occurs therebetween. The structure includes perforate components which deter the formation of gas pockets and diminish the risk of explosion. The hazardous gas mixed with oxygen is subsequently directed toward baffles on which may be deposited matter precipitating from the combined oxygen and hazardous gas. Prior to discharge from the apparatus, the gas and oxygen mixture may be subjected to a filter for further removal of matter. Both hazardous gas and oxygen flows are induced through the apparatus by a source of reduced pressure.

Abstract: A hazardous gas mixing apparatus includes a mixing chamber wherein air is mixed with such a gas to render same inert. An air inlet assembly admits an air flow induced into the mixing chamber and includes an air flow sensor having a probe located in a housing of the assembly. Differential air pressures detected by the probe are provided to a signal generating transmitter and signal converter serving a logic controller providing a display correlated to linear feet per minute air flow in the apparatus mixing chamber. A honeycomb air straightener serves to provide a laminar flow of air past the sensor probe. An intake screen on the housing reduces the intake of foreign particles.

Abstract: An apparatus is disclosed for mixing ambient air and a hazardous gas with the gas being admitted to the apparatus via an inlet conduit. A rake disposed for travel within said conduit periodically dislodges deposits from the conduit interior with rake travel being along conduit affixed guides. Openings defined by the rake permit a gas flow at all times. Projections on a conduit end wall dislodge deposits from disc edges defining openings. A rake actuator is in communication with a solenoid valve in circuit with a timer and controller for automatic operation of the actuator.

Abstract: A housing receives ambient air through an inlet located so as to direct the airflow against blades of a rotor which disperses the airflow. A gas inlet conduit discharges hazardous gas into a chamber of the housing. The dispersed airflow acts on the hazardous gas entering the chamber to disperse and mix with the gas. The mixed air and hazardous gas flow impinges against a wall surface of the housing prior to discharge from the housing via an outlet conduit. A source such as the intake side of a blower induces the flow of air and hazardous gas through the housing and the outlet conduit. The rotor is located near an air inlet of the housing for rotor operation by airflow drawn into the housing. A flow sensor and damper control system are provided. Baffle assemblies are removably installed in the housing and include apertured plates which collect particles deposited by the mixed air and gas flow. Bypasses are provided to ensure an uninterrupted mixed air and gas flow past the baffle plates.