Abstract: A device for detecting and replenishing a salt solution in a salt spray machine and the salt spray machine includes a salt solution collector installed at the bottom of the salt spray machine and configured to collect the salt solution, a return pipe is connected to the salt solution collector and the salt solution storage tank, and a pH value sensor, a water level sensor and the salt concentration sensor are connected to the salt solution storage tank.

Abstract: The present invention provides a gas generator including an electrolytic device, a gas pathway, and a three-way valve module. The electrolytic device is configured for electrolyzing electrolyzed water to generate gas with hydrogen. The gas generated from the electrolytic device is transferred by the gas pathway for inhaling. The three-way valve module is configured on the electrolytic device for balancing a pressure in the electrolytic device by importing an ambient gas. The present invention uses the three-way valve module to balance the pressure in the electrolytic device for maintaining the water level of the electrolyzed water, thereby avoiding the electrolyzed water splashing or corroding the other elements.

Abstract: The invention discloses a water electrolysis hydrogen production plant with a pumpless water supply system. The plant includes a water treatment system, a water tank, a water electrolysis device, and a controller. The water treatment system, water tank and water electrolysis device are sequentially connected together via pipelines and associated valves. Compressed gas is connected, via a pipeline, to the water tank, and serves to drive water from the water tank into the water electrolysis device. A process flow for the method of operating the pumpless water supply system in a water electrolysis hydrogen production plant is also disclosed.

Abstract: A high-temperature long-shaft molten salt pump detection testbed, comprising: three pressure sensors, three electric shut-off valves, two flow sensors, two electric adjustments, and two temperature sensors, and also comprising a molten salt storage tank, a motor, a high-temperature long-shaft molten salt pump, a plurality of groups of insertion electric heaters, a first multipoint thermocouple, a second multipoint thermocouple, a preheating hole, a molten salt injection port, the test device can install a variety of models of molten salt pump, pipeline can use reducer to connect different types of molten salt pump, molten salt tank height can also meet the depth of different molten salt pump, a variety of models of molten salt pumps are used for tests, which are versatile and easy to use.

Abstract: Provided is an air conditioner. The air conditioner includes a humidification medium, a watering housing to spray water to supply moisture to the humidification medium, a watering motor to rotate the watering housing, a blower fan to blow air, a blower motor to rotate the blower fan, an operation module receiving an instruction from a user, a sterilization module to sterilize the humidification medium, and a control unit to control the watering motor, the blower motor, and the sterilization module according to an instruction inputted to the operation module. Herein, the control unit stops an operation of the watering motor according to the instruction inputted to the operation module, operates the blower motor and the sterilization module when the sterilizing dry mode is set, and stops the operation of the sterilization module after a predetermined sterilizing dry time elapses.

Abstract: Elemental fluorine is often manufactured electrochemically from a solution of KF in hydrogen fluoride and contains varying amounts of HF as impurity. The present invention provides a method for chamber cleaning using F2 which contains more than 0.1% by weight and equal to or less than 10% by weight of HF. Surprisingly, such an F2 is very well suited for the purpose of chamber cleaning. In a preferred embodiment, the F2 which contains more than 0.1% by weight and less than 2.5% by weight of HF is electrolytically produced, cleaned, delivered and used on site, without any pressurizing treatment. Omitting cleaning steps and process and using process conditions leaving a relatively high HF content in the F2 allows at the same time to omit pressurizing steps. The advantage is that less cleaning steps.

Abstract: A device for the purification of water, has the following components: (a) a storage tank (10) for retention of the purified water; (b) a feed pipe (15), leading from the water to be purified to the storage tank (10); (c) a reactor (4) for anodic oxidation of the water arranged within the feed pipe (15); (d) the storage tank (10) having a redox sensor (5) for measuring the redox potential; and (e) water supply from the feed pipe (15) into the storage tank (10) is performed discontinuously.

Abstract: A water electrolysis system includes a water electrolysis apparatus for electrically decomposing water to generate oxygen and high-pressure hydrogen having a pressure higher than the oxygen, a gas-liquid separator connected to a hydrogen pipe which discharges the high-pressure hydrogen from the water electrolysis apparatus, for separating water contained in the high-pressure hydrogen, a high-pressure hydrogen outlet pipe for delivering the high-pressure hydrogen separated from water from the gas-liquid separator, a water drainage line for discharging the water from the gas-liquid separator, and a gas depressurizing line connected to the gas-liquid separator, for degassing the gas-liquid separator before the water is discharged from the water drainage line into the water drainage line.

Abstract: A system comprises a water purification system having an electrolytic cell to receive a flow of waste water. A power source supplies power to the electrolytic cell. The power source at least comprises an H-bridge controller to apply power to the electrolytic cell. A device senses an amount of current being supplied to the H-bridge controller. An analog-to-digital device outputs a digital signal representative of the sensed current. A processor processes the digital signal and outputs a plurality of pulse width modulated control signals for the H-bridge controller. The control signals control the H-bridge controller to apply the power during a first period of time with a current in a first direction to maintain an average for the sensed current, and to apply the power during a second period of time with the current in a second direction to maintain the average.

Abstract: A substantially ring-shaped seat section (8) protrudes from an inner circumference wall in a through hole (4) of a container attaching section (6) made of a metal. On an outer circumference of an electrode shaft (3) held in the through hole (4) through an insulator (5) made of a synthetic resin, locking protrusions (13, 14), which have a diameter larger than a hole diameter of the seat section (8), are provided at a distance from the seat section (8), on at least inner side or outer side of the seat section (8) in a shaft direction of the electrode shaft (3). Thus, for instance, when the inside of the metal container (2) is at a high temperature, the insulator (5) is destroyed and the electrode shaft (3) is to jump out from the container attaching section (6) to the outside or the inside of the metal container (2), the locking protrusions (13, 14) lock the seat section (8) and prevent the electrode shaft (3) from jumping out.

Abstract: A water electrolysis system includes a water electrolysis device, a gas-liquid separator, a water-amount detector, a hydrogen storage device, a hydrogen storage device, a decompressing device, and a control device. The control device includes a residual capacity calculator, a hydrogen production amount calculator, and an electrolysis termination determiner. The residual capacity calculator is configured to calculate a residual capacity of the hydrogen storage device. The hydrogen production amount calculator is configured to calculate an amount of hydrogen produced by the water electrolysis device in a drainage period in which the amount of water in the gas-liquid separator increases to an upper limit from a lower limit. The electrolysis termination determiner is configured to terminate the water electrolysis process when the amount of hydrogen calculated by the hydrogen production amount calculator is greater than the residual capacity calculated by the residual capacity calculator.

Abstract: A pumpless, fanless electrolyte-circulation system comprises an electrolyzer core that generates hydrogen and oxygen gases and includes a water electrolyzer having a plurality of electrolytic serial clusters connected substantially in parallel with each other and assembled into respective sealed reaction cells. Each of the electrolytic serial clusters includes a plurality of electrolytic cells. An electrolyte container includes a plurality of electrolytes in form of a concentration and is substantially separated from and connected to the electrolyzer core with a supply tube and return tube. A frame is substantially resistant to the concentration and separates a plurality of electrodes. Releasing of the gases brings the electrolytes in the electrolyzer core out of the electrolyzer core through the supply tube into the electrolyte container. The return tube allows each of the electrolytes to enter the electrolyzer core such that the electrolyte is forced to circulate by a releasing force of the gases.

Abstract: An apparatus that can supply oxyhydrogen gas includes an electrolysis device, a filter device, and a control device. The electrolysis device includes a voltage controller that applies voltages to positive and negative electrode plates to convert water electrolytically in an electrolysis chamber to form oxyhydrogen gas, which is outputted via a first output conduit. An output end of the first output conduit is extended below water level in a container of the filter device. A second output conduit permits the oxyhydrogen gas that flows through the first output conduit and through the water in the container to flow therethrough. The control device includes a ratio adjusting interface for controlling a difference in the voltages provided by the voltage controller so as to adjust a ratio of hydrogen to oxygen in the oxyhydrogen gas formed in the electrolysis chamber.

Abstract: A system is capable of air cleaning and dehumidifying, and includes a condenser device, a water supplying device and an oxyhydrogen ion generating device. The condenser device is operable to form water vapor in ambient air into water droplets. The water supplying device collects the water droplets from the condenser device. The oxyhydrogen ion generating device is coupled to the water supplying device and includes a container receiving water from the water supplying device, electrode plates disposed in the container, and an output conduit. The electrode plates are operable to electrolytically convert water to form oxyhydrogen-ion-containing gas that is released via the output conduit.

Abstract: A system is capable of oxyhydrogen ion air cleaning and humidifying, and includes a water supplying device, a humidifying device and an oxyhydrogen ion generating device. The humidifying device is coupled to the water supplying device and includes a moist air output unit and a water passage unit permitting supply of water from the water supplying device to the moist air output unit, which can operate to form water into moist air. The oxyhydrogen ion generating device is coupled to the water supplying device and includes a container receiving water from the water supplying device, electrode plates disposed in the container, and an output conduit. The electrode plates are operable to electrolytically convert water to form oxyhydrogen-ion-containing gas that is released via the output conduit.

Abstract: An apparatus for producing electrolytic reduced water, the apparatus including a water purifying unit configured to generate purified water by filtering water, an electrolytic reduced water generating unit comprising a first electrode and a second electrode, which have different polarities, configured to receive the purified water through a first pipe connected to the water purifying unit and configured to generate reduced water containing dissolved hydrogen gas by performing electrolysis on the purified water through the first electrode and the second electrode. a control unit configured to determine a point of time for switching polarities of the first electrode and the second electrode based on the detected water quality and to control an operation of the power supply unit such that the polarities of the first electrode and the second electrode are switched if it is determined that the point of time is reached.

Abstract: It is a task of the present invention to provide an electrolytic apparatus for producing fluorine or nitrogen trifluoride by electrolyzing a hydrogen fluoride-containing molten salt, the electrolytic apparatus being advantageous in that the electrolysis can be performed without the occurrence of the anode effect even at a high current density and without the occurrence of an anodic dissolution. In the present invention, this task has been accomplished by an electrolytic apparatus for producing fluorine or nitrogen trifluoride by electrolyzing a hydrogen fluoride-containing molten salt at an applied current density of from 1 to 1,000 A/dm2, the electrolytic apparatus using a conductive diamond-coated electrode as an anode.

Abstract: The disclosure is directed at a method and apparatus for controlling fuel cell operating conditions. The apparatus includes a set of sensors for monitoring the fuel cell operating conditions and a processing unit, in communication with the set of sensors for determining when the fuel cell operating conditions are outside of an acceptable range. When it is determined that the fuel cell operating conditions are outside of the acceptable range, an electrolyser is activated to electrolyse waste liquid water or water vapour to assist in controlling the fuel cell operating conditions.

Abstract: A control device receives an output signal from a liquid level sensor disposed in an anode chamber. This output signal indicates whether the liquid level of the electrolytic bath in the anode chamber is higher than a reference level. When the liquid level of the electrolytic bath in the anode chamber is higher than the reference level, the control device increases, by a prescribe value, the frequency of a compressor driving voltage that is generated in an inverter circuit. This increases the rotational speed of a motor in the compressor, increases the discharge pressure of hydrogen gas being discharged from the compressor, and decreases the pressure inside the cathode chamber. As a result, the liquid level of the electrolytic bath in the cathode chamber rises, and the liquid level of the electrolytic bath in the anode chamber falls below the reference level.

Abstract: Provided is an electro-chemical water treatment apparatus and method for removing total nitrogen ingredients of ammonia nitrogen, nitrous acid nitrogen, nitrate nitrogen etc., organic materials of BOD and COD induction ingredients, and cyanogen included in wastewater and dirty water.

Abstract: A water electrolysis system includes a water electrolysis device, a gas-liquid separator, a water-amount detector, a hydrogen storage device, a hydrogen storage device, a decompressing device, and a control device. The control device includes a residual capacity calculator, a hydrogen production amount calculator, and an electrolysis termination determiner. The residual capacity calculator is configured to calculate a residual capacity of the hydrogen storage device. The hydrogen production amount calculator is configured to calculate an amount of hydrogen produced by the water electrolysis device in a drainage period in which the amount of water in the gas-liquid separator increases to an upper limit from a lower limit. The electrolysis termination determiner is configured to terminate the water electrolysis process when the amount of hydrogen calculated by the hydrogen production amount calculator is greater than the residual capacity calculated by the residual capacity calculator.

Abstract: A water electrolysis system includes a water electrolysis apparatus, a gas-liquid separating apparatus, a hydrogen supply line, a water level detector, and a current regulator. The water electrolysis apparatus is to electrolyze water to generate oxygen and high-pressure hydrogen having a higher pressure than a pressure of the oxygen. The gas-liquid separating apparatus is disposed upstream of the water electrolysis apparatus in a gravitational direction to separate moisture contained in the high-pressure hydrogen. The hydrogen supply line is to supply the high-pressure hydrogen discharged from the water electrolysis apparatus to the gas-liquid separating apparatus. The water level detector is configured to detect a water level in the gas-liquid separating apparatus. The current regulator is configured to regulate a current to be applied to the water electrolysis apparatus based on the water level detected by the water level detector in the gas-liquid separating apparatus.

Abstract: It is a task of the present invention to provide an electrolytic apparatus for producing fluorine or nitrogen trifluoride by electrolyzing a hydrogen fluoride-containing molten salt, the electrolytic apparatus being advantageous in that the electrolysis can be performed without the occurrence of the anode effect even at a high current density and without the occurrence of an anodic dissolution. In the present invention, this task has been accomplished by an electrolytic apparatus for producing fluorine or nitrogen trifluoride by electrolyzing a hydrogen fluoride-containing molten salt at an applied current density of from 1 to 1,000 A/dm2, the electrolytic apparatus using a conductive diamond-coated electrode as an anode.

Abstract: A fluorine gas generator for generating highly pure fluorine gas in a stable and safe manner by electrolyzing an electrolytic bath 2 comprising hydrogen fluoride in the form of a molten mixed gas is provided which comprises an electrolytic cell 1 divided, by a partition wall 16, into an anode chamber 3 in which an anode is disposed and a cathode chamber 4 in which a cathode is disposed, pressure maintenance means for maintaining the anode chamber 3 and cathode chamber 4 at atmospheric pressure, and liquid level sensing means 5, 6 capable of sensing the levels of the electrolytic bath 2 in the anode chamber 3 and in the cathode chamber 4, respectively, at three or more level stages.

Abstract: An electrophoretic dip coating plant comprises at least one dip tank, which is filled with a coating fluid. The objects which are to be coated are carried by means of a conveyor system through the coating fluid located in the dip tank and are then in electrical contact with a bus bar arrangement comprising an input and/or output region and a main region. The main region of the bus bar arrangement is connected to one terminal of a d.c. voltage supply unit. The other terminal of this d.c. voltage supply unit is electrically connected to at least one electrode which is immersed in the coating fluid in the dip tank. In order to enable the voltages which are applied to the adjacent regions of the bus bar arrangement to be regulated independently of one another, yet still to manage with a single d.c.

Abstract: A system and method for dispensing cleaning fluids. The system includes a water source in fluid communication with a dissolved solids source. Both the water source and the dissolved solid source are in fluid communication with an inlet into an electrolytic cell. Two outlets which are configured to flow fluid out of the electrolytic cell may also be provided. The first outlet is an electrolyzed reducing water outlet, the second outlet is an electrolyzed astringent water outlet. The system may also include one or more point of use outlets in fluid communication with the electrolyzed reducing water outlet from the electrolytic cell. Similarly, one or more separate point of use outlets may be provided in fluid communication with the electrolyzed astringent water outlet. In one embodiment, all elements of the system as described above are contained within or attached to a single housing which may be a portable housing.

Abstract: An electrolysis assembly for providing hydrogen and oxygen gases to the air intake of an internal combustion engine includes an electrolysis unit having a case with at least a pair of opposed, grooved side panels, a grooved floor panel that is unitary with the side panels, and a top panel that is sealed to the side panels. The floor and side panel unit is preferably injection molded from a polymeric engineering thermoplastic. Each groove in the floor panel is aligned with a groove on each side panel, forming a plate receiving slot. Laminar plates made of corrosion resistant metal slip into each slot. When submersed in electrolyte, each pair of adjacent laminar plates forms an electrolytic cell when a voltage differential exists between them. The electrolysis unit incorporates at least one electrolyte supply chamber which maintains electrolyte levels at acceptable levels for an extended period.

Abstract: Provided is an electro-chemical water treatment apparatus and method for removing total nitrogen ingredients of ammonia nitrogen, nitrous acid nitrogen, nitrate nitrogen etc., organic materials of BOD and COD induction ingredients, and cyanogen included in wastewater and dirty water.

Abstract: A solar electrolysis power co-generation system includes a solar electrolysis source and a control unit. The solar electrolysis source includes a solar panel, an electrolysis unit, a hermetically sealed compressor, a hydrogen tank, and a hydrogen-powered fuel cell and produces, compresses, and stores hydrogen gas that is used to fuel the fuel cell. The control unit includes an inverter, a microprocessor, and a modem. The control unit connects the solar electrolysis power source with a power grid and with an individual consumer having an electrical load. The power co-generation system utilizes the electrolysis of water and solar energy to power a fuel cell. The energy produced with the fuel cell may be provided to an existing power gird as well as to an individual consumer. Further a method for decentralized power co-generation includes the step of providing a plurality of solar electrolysis power co-generation systems.

Abstract: A system, device, and method include a cell-powered first electronic device powered using electrical potential imposed across an electrolytic cell. The potential is voltage-boosted to accomplish this task. If the electrical potential imposed the cell is insufficient, the device can also be battery-powered. In any event, this device is in communication with one or more sensors in the electrolytic cell, as well as a second electronic device, and the first and second electronic devices wirelessly communicate. More specifically, the first electronic device wireless transmits data signals to the second electronic device, which receives the same. The first and second electronic devices are physically remote from one another, and they communicating over a private or public network, preferably using spread spectrum technology.

Abstract: A solar electrolysis power source includes a solar panel, an electrolysis unit, a hermetically sealed compressor, a hydrogen tank, and a fuel cell. By utilizing the electrolysis of water powered by solar energy, the solar electrolysis power source enables a safe, environmentally benign, and cost-effective method of power generation. Furthermore, by combining the production, the compression, the storage of hydrogen, as well as the delivery of the hydrogen to the fuel cell in one hermetically sealed unit currently existing problems with the production, storage delivery, and refueling of hydrogen can be eliminated. The solar electrolysis power source uses hydrogen gas that is hermetically sealed from production to use.

Abstract: A method of operating an integrated hydrogen production and processing system is provided. The method includes operating an electrolyzer to produce hydrogen from water and utilizing heat generated from the electrolyzer to increase a temperature of an electrolyte in a first mode of operation. The method also includes heating the electrolyte in a second mode of operation by extracting heat from a hydrogen compressor to increase or maintain the temperature of the electrolyte during periods when electrolysis is not performed in the electrolyzer or during startup of the electrolyzer.

Abstract: A substantially ring-shaped seat section (8) protrudes from an inner circumference wall in a through hole (4) of a container attaching section (6) made of a metal. On an outer circumference of an electrode shaft (3) held in the through hole (4) through an insulator (5) made of a synthetic resin, locking protrusions (13, 14), which have a diameter larger than a hole diameter of the seat section (8), are provided at a distance from the seat section (8), on at least inner side or outer side of the seat section (8) in a shaft direction of the electrode shaft (3). Thus, for instance, when the inside of the metal container (2) is at a high temperature, the insulator (5) is destroyed and the electrode shaft (3) is to jump out from the container attaching section (6) to the outside or the inside of the metal container (2), the locking protrusions (13, 14) lock the seat section (8) and prevent the electrode shaft (3) from jumping out.

Abstract: An apparatus for controlling a molten salt electrolyzer in which an electrolytic bath in a solid form as contained in the electrolyzer is melted to automatically attain a state allowing electrolysis, which apparatus comprises detecting means for detecting the changes in state of the electrolyzer by means of detectors fitted to the electrolyzer, and adjusting means for adjusting, after using the detecting means, the liquid electrolytic bath levels to a state allowing electrolysis.

Abstract: Sanitary foot warm bath equipment is provided which prevents or suppresses proliferation of saprophytic bacteria in a foot bath. The foot warm bath equipment is foot warm bath equipment which reserves hot water for foot bathing in a foot bath, the equipment comprising heating means for heating water in the foot bath to produce hot water of setting temperature, electrolytic water producing means for producing electrolytic water containing hypochlorous acid by electrolyzing the water, and control means for controlling the heating means and the electrolytic water producing means, wherein the electrolytic water produced by the electrolytic water producing means is supplied into the foot bath.

Abstract: There is provided a new and useful hydrogen generator for supplying hydrogen and/or oxygen to an internal combustion engine, the generator comprising a housing, a base unit secured within the housing, the base unit having integral therewith first mounting means for an electrolytic cell, second mounting means for a replaceable liquid reservoir, and a conduit between the first and second mounting means, an electrolytic cell mounted in the first mounting means, the cell having a liquid inlet and a gas outlet, and having connectors for electrical connection to an external source of energy, and a controller unit connected to the cell and comprising a central processing unit and a series of sensors for sensing pressure, temperature and liquid level in the cell, the controller controlling operation of the cell responsive to sensor output.

Abstract: A shocking chamber for performing electroporation is constructed in the form of a base and a hinged lid which when lowered forms an enclosure with the base that fully encloses a cuvette and impresses a high voltage across the cuvette, the voltage connection becoming disengaged upon the simple raising of the lid. The base contains two pairs of electrical leads, one pair engaging the cuvette with spring-loaded contacts that provide electrical connections to the cuvette while helping to secure the cuvette in place, and the other pair joined to high-voltage terminals. A shunt built into the lid bridges the two pairs of leads in the base when the lid is closed and pivots out of the way to clear all leads when the lid is opened. These and other features of the construction provide the user with a safe and secure means of forming the high-voltage electrical connections used in electroporation in an apparatus that can be operated with one hand.

Abstract: One embodiment of a method of operating an electrochemical cell system comprises: flowing supply water to an anode electrode of an electrolysis cell, applying a first current density to the electrolysis cell, electrolyzing the supply water at the anode electrode wherein hydrogen ions and a first portion water migrate to a cathode electrode of the electrolysis cell, collecting the first portion of water in a chamber in fluid communication with the cathode electrode, monitoring a first portion water level in the chamber, when the first portion water level attains a first selected level, decreasing the supply water flow to the anode electrode a sufficient amount to draw the first portion water from the chamber to the anode electrode, and electrolyzing the first portion water.

Abstract: An apparatus for electroplating a rotogravure cylinder out of a plating solution is disclosed. The apparatus includes a plating tank adapted to support the cylinder and to contain a plating solution so that the cylinder is at least partially disposed into the plating solution. The apparatus also includes a non-dissolvable anode at least partially disposed within the plating solution. A current source is electrically connected to the non-dissolvable anode and to the cylinder. An ultrasonic system may be provided to introduce wave energy into the plating solution includes at least one transducer element mountable within the tank and a power generator adapted to provide electrical energy to the transducer element. A holding tank having a circulation pump, a mixing system and heating and cooling elements for the plating solution may be provided.

Abstract: A method of and system for cleansing a toilet or urinal are proposed which require less maintenance work and are safer to users than conventional methods using acid substances, and which can prevent the formation of stain on the toilet or urinal effectively and suppress the generation of ammonia sufficiently, thus accomplishing a sufficient countermeasure to the stench. A urinal (A1) is provided with a continuous electrolytic cell (1) having at least a pair of electrodes, a passage formed between the electrodes, and an inlet and an outlet that lead to the passage. Tap water is electrolyzed by the continuous electrolytic cell (1), whereby free chlorine is produced. Then the water containing free chlorine produced is supplied to the urinal (A1), and the water containing free chlorine sterilizes the inside of the urinal, thus preventing urease, an enzyme carried by bacteria, from acting to decompose urea.

Abstract: A machining solution for removal-machining an object to be machined 103 is introduced to an inside of a machining solution container 101, and a predetermined voltage is applied to between the machining electrode 104 and the object to be machined 103 to cause electrochemical reaction thereby fabricating a part cast mold. Then the machining solution is changed to a machining solution for metal layer formation to effect additional machining on a surface of the cast mold, forming a metal layer. Then the machining solution is changed to a machining solution for part formation to effect additional machining inside the cast mold, forming a part. Finally the machining solution is changed to a machining solution for dissolving metal layer to dissolve the metal layer to taking out the inside part, fabricating a part.