22results about "Portable system fuel cells" patented technology

A processing unit includes a substrate, an electrical load, and a microfluidic volume. The electrical load is supported by the first surface of the substrate, and the microfluidic volume is positioned in the second surface of the substrate. The processing unit includes a first electrode positioned in the microfluidic volume and a second electrode positioned in the microfluidic volume. A first TSV connects the first electrode to the electrical load, and a second TSV connects the second electrode to the electrical load. An electrochemical fluid is positioned in the microfluidic volume to provide electrical power to the electrical load and receive heat from the electrical load.

Techniques for generating electric power for well site operations include processing a hydrocarbon fluid produced from a subterranean formation, through a wellbore, and to a terranean surface into at least one acid gas; processing the at least one acid gas into hydrogen; generating, with the hydrogen, electrical power from a hydrogen engine; and providing the generated electrical power for use or storage to power at least one electrically-operated machine to perform at least one well site operation.

A hydrogen generation unit generates hydrogen by reacting a hydrogen carrier with a water-containing liquid. A main body includes the hydrogen generation unit. A collection container is attachable to and detachable from the main body, and collects a composition containing a byproduct generated together with hydrogen in the hydrogen generation unit. A detection unit detects a collected amount of the composition collected from the hydrogen generation unit by the collection container. A storage unit is provided on the collection container and stores information regarding the collected amount.

The invention relates to a battery bank system for a fish cage (1) with a floating part (2), wherein the battery bank system comprises a waterproof battery container (5) comprising a heat exchange part (6) and a cable outlet (7). Furthermore, the battery bank system comprises batteries (8) positioned inside the battery container (5) wherein the weight of the batteries (8) and the battery container (5) relative to the volume of the battery container (5) provides buoyancy. The battery container (5) is directly or indirectly attached to the floating part (2) such that the heat exchange part (6) of the battery container is at least partially submerged in water and wherein the buoyancy ensures that the weight of the batteries provides a reduced load on the floating part (2).

The present invention relates to a medical device (1) comprising: a holder (2) that may be applied to the skin of a patient, a biofuel cell (3), a pump (4) configured for supplying blood to the biofuel cell (3), a sensor (5) configured to emit a signal representative of a blood parameter, a control unit (50) connected to the pump and the sensor, and a rechargeable battery (6) electrically connected to the biofuel cell (3). The control unit is configured to perform a recharging procedure comprising the following steps: processing the signal emitted by the sensor, estimating a value of the blood parameter of the patient, comparing said estimated value with a threshold value, and, based on said comparison, commanding the activation of the pump for delivering a predetermined amount of blood to the biofuel cell for generation electricity and recharging the battery.

A medical device includes a holder that may be applied to the skin of a patient, a biofuel cell, a pump configured for supplying blood to the biofuel cell, a sensor configured to emit a signal representative of a blood parameter, a control unit connected to the pump and the sensor, and a rechargeable battery electrically connected to the biofuel cell. The control unit is configured to perform a recharging procedure including the following steps: processing the signal emitted by the sensor, estimating a value of the blood parameter of the patient, comparing said estimated value with a threshold value, and, based on the comparison, commanding the activation of the pump for delivering a predetermined amount of blood to the biofuel cell for generation electricity and recharging the battery.

The present invention relates to a method of supplying electricity to an electrical load including steps of providing an alkaline solution, reacting the alkaline solution with silicon so as to produce hydrogen. processing the hydrogen in a fuel cell to generate electricity, and supplying the electricity from an output of the fuel cell to the electrical load via a suitable electrical interfacing module.

The processing unit includes a substrate, an electrical load, and a microfluidic volume. An electrical load is supported by the first surface of the substrate, and a microfluidic volume is located in the second surface of the substrate. The processing unit includes a first electrode located in the microfluidic volume and a second electrode located in the microfluidic volume. A first TSV connects the first electrode to an electrical load and a second TSV connects the second electrode to the electrical load. An electrochemical fluid is located in the microfluidic volume to provide electrical power to and receive heat from the electrical load.

A bio-electrochemical fuel cell is provided. The fuel cell includes an anode placed between a second endplate and a supporting plate, a cathode placed between a first endplate and the supporting plate, a separator plate provided between the first endplate and the cathode, a separator plate provided between the second endplate and the anode, and at least one separator plate provided on each side of the supporting plate. The anode has a first layer and a biofilm including photosynthetic microorganisms is present on a surface of the first layer. A central aperture of the first endplate receives a flow of water containing the photosynthetic microorganisms and a central aperture of the second endplate discharges the flow of water. Application of light to the fuel cell assembly causes the photosynthetic microorganisms to release oxygen at the anode and induces a photo-current in the anode.

Embodiments of the disclosure relate to a power tool. The power tool comprises at least one hybrid composite component. The hybrid composite component comprises a housing component and a composite component. The composite component consists of a first thermoplastic polymer matrix filled with long fibers, most of which have a length of at least 0.5 inches.

A bio-electrochemical fuel cell is provided. The fuel cell includes an anode placed between a second endplate and a supporting plate, a cathode placed between a first endplate and the supporting plate, a separator plate provided between the first endplate and the cathode, a separator plate provided between the second endplate and the anode, and at least one separator plate provided on each side of the supporting plate. The anode has a first layer and a biofilm including photosynthetic microorganisms is present on a surface of the first layer. A central aperture of the first endplate receives a flow of water containing the photosynthetic microorganisms and a central aperture of the second endplate discharges the flow of water. Application of light to the fuel cell assembly causes the photosynthetic microorganisms to release oxygen at the anode and induces a photo-current in the anode.

A micro-power generator for portable applications with a micro-scale reformer tube having a diameter of 3 mm or less, a plurality of fuel cells within a main reactor chamber, each of the plurality of fuel cells coupled in a cantilevered fashion at a first end to a substrate, the micro-scale reformer configured to receive a fuel / air mixture through an intake. The micro-power generator receives fuel and converts the fuel within the main reactor to a syngas through use of thermal partial oxidation without subsequent formation of soot, and then electrochemically converts the synthesis gas to generate electricity. The reform reaction is made self-sustaining, at least in part, by the heat introduced to the at least one reformer tube by waste gas expelled into the main reactor chamber when an equivalence ratio is maintained above a threshold ratio.

A bio-electrochemical fuel cell is provided. The fuel cell includes an anode placed between a second endplate and a supporting plate, a cathode placed between a first endplate and the supporting plate, a separator plate provided between the first endplate and the cathode, a separator plate provided between the second endplate and the anode, and at least one separator plate provided on each side of the supporting plate. The anode has a first layer and a biofilm including photosynthetic microorganisms is present on a surface of the first layer. A central aperture of the first endplate receives a flow of water containing the photosynthetic microorganisms and a central aperture of the second endplate discharges the flow of water. Application of light to the fuel cell assembly causes the photosynthetic microorganisms to release oxygen at the anode and induces a photo-current in the anode.

Provided is an electrode binder for a biofuel cell, which can provide an electrode slurry that has a low environmental load, a conductive material of which being good in dispersibility, and is suitable for screen printing and allows production of a biofuel cell that exhibits good output characteristics. The electrode binder for a biofuel cell according to the present invention includes a polymer (A) having a first structural unit derived from a nonionic ethylenically unsaturated monomer (a1), a second structural unit derived from an anionic ethylenically unsaturated monomer (a2), and a third structural unit derived from a crosslinking agent (a3), and the crosslinking agent (a3) has two or more ethylenically unsaturated bonds in one molecule.

The hydrogen generation unit (12) generates hydrogen by reacting a hydrogen carrier with a liquid containing water. The main body (10) has a hydrogen generation unit (12). The recovery container (14) is detachably attached to the main body part (10) and recovers a composition including by-products generated with hydrogen in the hydrogen generation part (12). The detection unit (13) detects the recovery amount of the composition recovered from the hydrogen generation unit (12) by the recovery container (14). A memory (17) is provided in the recovery container (14) and stores information on the recovery amount. Therefore, the recovery amount of the recovery container (14) for recovering a composition including by-products generated during hydrogen generation can be ascertained.

A reverse electrodialysis device using a precipitation reaction, according to one embodiment of the present invention, comprises a first cell stack alternately forming solid salt chambers and precipitation chambers through cation-exchange membranes and anion-exchange membranes which are alternately provided, and a first water-soluble solid salt and a second water-soluble solid salt which are filled in the solid salt chambers, wherein the first water-soluble solid salt and the second water-soluble solid salt are alternately filled in the solid salt chambers, and can react with each other so as to generate a precipitate in neighboring precipitation chambers when water is supplied.

A cannabinoid fuel cell is provided. The cannabinoid fuel cell can include a fuel cell housing, a membrane electrode assembly (MEA) comprising an anode, a cathode, an ion exchange membrane disposed between the anode and the cathode, and an electrolyte, wherein the MEA comprises an anode side and a cathode side; and a buffer flow plate defining a first serpentine channel. The buffer flow plate can be disposed between the anode side of the MEA and the fuel cell housing.

A vaporizer device includes a fuel cell disposed with a device body and configured to receive a cartridge having a first compartment that holds a vaporizable material, a second compartment that holds a fuel, a heating element, and a wicking element that can draw the vaporizable material to the heating element to be vaporized. The vaporizer cartridge is configured for fluidically, thermally, and / or electrically coupling to a vaporizer device body. Various implementations of the vaporizer cartridge are described that include one or more features for a fuel cell within the cartridge.

Embodiments of the disclosure relate to a power tool. The power tool includes at least one hybrid composite component. The hybrid composite component includes a housing component and a composite component. The composite component is made of a first thermoplastic polymer matrix filled with long fibers in which most of the long fibers have a length of at least 0.5 inches.

Disclosed are methods and apparatuses utilizing an O2-insensitive FDH2 from the sulfate-reducing bacterium (SRB) Desulfovibrio vulgaris Hildenborough (DvH). The O2-insensitive FDH2 may be applied to a biofuel cell for generating electricity and generating hydrogen peroxide. The biofuel cell can also be applied to wearable or implantable devices as a power source. The O2-insensitive FDH2 can also be used in other applications not applying a fuel cell, such as hydrogen peroxide generation, a formate testing kit, or carbon capture applications.

A bio-electrochemical fuel cell is provided. The fuel cell includes an anode placed between a second endplate and a supporting plate, a cathode placed between a first endplate and the supporting plate, a separator plate provided between the first endplate and the cathode, a separator plate provided between the second endplate and the anode, and at least one separator plate provided on each side of the supporting plate. The anode has a first layer and a biofilm including photosynthetic microorganisms is present on a surface of the first layer. A central aperture of the first endplate receives a flow of water containing the photosynthetic microorganisms and a central aperture of the second endplate discharges the flow of water. Application of light to the fuel cell assembly causes the photosynthetic microorganisms to release oxygen at the anode and induces a photo-current in the anode.

A bio-electrochemical fuel cell is provided. The fuel cell includes an anode placed between a second endplate and a supporting plate, a cathode placed between a first endplate and the supporting plate, a separator plate provided between the first endplate and the cathode, a separator plate provided between the second endplate and the anode, and at least one separator plate provided on each side of the supporting plate. The anode has a first layer and a biofilm including photosynthetic microorganisms is present on a surface of the first layer. A central aperture of the first endplate receives a flow of water containing the photosynthetic microorganisms and a central aperture of the second endplate discharges the flow of water. Application of light to the fuel cell assembly causes the photosynthetic microorganisms to release oxygen at the anode and induces a photo-current in the anode.