19 results about "Electrolytes levels" patented technology

This invention relates to the field of battery technology, specifically disclosing an electrolyte density adjustment device for a flooded lead-acid battery. The device includes a valve body with a level sensor A, a level sensor B, and a density sensor connected to it. Level sensor A and level sensor B are used to monitor high and low electrolyte levels, respectively. A water injection pipe is connected to the valve body, one end of which is connected to a storage tank for storing pure water. A first solenoid valve is installed in the water path between the water injection pipe and the storage tank. The first solenoid valve, level sensor A, level sensor B, and density sensor are electrically connected to a controller. The valve body is cylindrical in shape, with a locking block at the top and a sealing groove on its outer surface containing a sealing ring. Compared to existing technologies, this invention ensures a stable electrolyte concentration and maintains a normal chemical reaction environment while adding pure water, which is beneficial to the battery's discharge performance and lifespan.

This utility model is entitled "A Tooling for Quickly Confirming the Consistency of Electrolyte Level in a Storage Battery." It belongs to the field of lead-acid battery technology. Its main purpose is to solve the problem of significant deviations in the electrolyte level height after adding acid in existing manual methods. Its main features are: the first and second triangular prism bodies share a common edge, and the adjacent faces of the first and second triangular prism bodies are located on the same plane; the included angle between the other faces of the first and second triangular prism bodies adjacent to the common edge is consistent with the included angle between the side and bottom surfaces of the battery. This utility model features a simple structure, ease of use, and the ability to quickly and accurately detect the consistency of electrolyte level height in all six cells of a storage battery after adding acid. It is mainly used for detecting and adjusting the consistency of electrolyte level height after adding acid, ensuring consistency in the formation process and battery performance.

The utility model relates to electrolytic bath liquid level adjusting technical field, and disclose a kind of stainless steel electrolytic bath liquid level regulating device, including electrolytic bath, the electrolytic bath inside fixedly connected with baffle, the baffle is equipped with through slot, the baffle inside slidingly connected with overflow plate, the adjusting mechanism is provided on the electrolytic bath, the adjusting mechanism includes U-shaped plate, the U-shaped plate is fixedly connected in electrolytic bath top, the U-shaped plate inside is provided with control panel. Through the design of adjusting mechanism, baffle is isolated into two independent spaces, overflow height is flexibly adjusted by controlling the height position of overflow plate, relative to constant overflow height, more can match the electrolyte use requirement of different depth, and on this basis, when needing to improve electrolyte level height, still can be input into the electrolysis area in electrolytic bath by submersible pump to re-input the electrolyte overflowed in electrolysis area, improve the utilization efficiency of resources.

Embodiments of the inventive concept include an interstitial fluid capture device configured to capture an interstitial fluid sample from the mouth of a user, an electrolyte measurement kit including the device, and a method for measuring electrolyte levels using the device. An exemplary device includes a main body portion configured for placement in the mouth of a user, the main body portion including a reservoir containing a hypertonic solution and having an opening that is sealed by a semipermeable membrane that permits a sample of interstitial fluid from the mouth of the user to be drawn through the membrane and into the solution reservoir. Various analyses may be performed on the captured interstitial fluid sample after removal of the device, including but not limited to, the assessment of one or more electrolyte levels through the use of various test strips or other techniques.

This invention discloses a lithium battery formation buffer cup, including a shell with connection holes at the top and bottom. A sealed cavity communicating with the connection holes is located inside the shell. A movable baffle, movable along the axial direction of the shell, is located within the cavity. The movable baffle has at least one through hole, and its projection at the bottom of the shell completely overlaps with the bottom cross-section of the buffer cup shell. In this invention, the movable baffle can move vertically according to changes in the liquid level in the buffer cup. When the negative pressure changes drastically, it can stop the electrolyte from being rapidly drawn away, i.e., from the cell connection hole to the manifold connection hole. When the liquid level in the buffer cup rises, the movable baffle remains above the electrolyte level, preventing the formation of large bubbles and preventing large bubbles from bursting and carrying electrolyte droplets into the manifold under negative pressure, thus reducing electrolyte loss during the cell formation process.

The utility model relates to the technical field of electrophoresis, in particular to an electrophoresis tank liquid circulation system which comprises an electrophoresis tank box body and a cleaning mechanism, a rotating pipe is arranged at the bottom end of the electrophoresis tank box, the bottom end of the rotating pipe extends to the outside of the bottom end of the electrophoresis tank box and is connected with a connecting pipe, the other end of the connecting pipe is connected with a filtering mechanism on the side wall of the electrophoresis tank box through a circulating pump, and the cleaning mechanism comprises a sealing plate, a collecting box, a backflow pipe and an air supply pipe. Bubbles generated during electrophoresis of electrolyte in the electrophoresis tank box body are conveniently cleaned through the cleaning mechanism, the bubbles are prevented from interfering with normal electrophoresis work, the electrophoresis quality is improved, the cleaning mechanism can be correspondingly adjusted along with the change of the liquid level of the electrolyte in the electrophoresis tank box body, and the application range is wider.

The present invention relates to the technical field of aluminum electrolysis parameter measurement. Disclosed is a two-level and cathode voltage drop calculation method for an aluminum electrolysis cell. Voltage signal data and displacement signal data are collected and stored in arrays; the data is preprocessed; a trigger condition for an air and electrolyte interface and a trigger condition for an electrolyte and aluminum liquid interface are set; for each group of data in the arrays, an electrolyte level and an aluminum level are calculated and rationality determination is performed; and average values are taken as final values. The present invention achieves unmanned measurement of process parameters such as aluminum electrolysis cell electrolyte and aluminum liquid heights and cathode voltage drop, thereby improving the automation and intelligence level of the electrolysis process, reducing the risks and costs of manual measurement, and improving testing efficiency and accuracy.

The embodiment of the present disclosure provides a kind of aluminum electrolytic cell molten aluminum fluctuation, two level and electrolyte temperature measurement method, belong to the field of computing technology, specifically include: by target yolo-v5 model identification target aluminum electrolytic cell flame hole in picture, obtain in pixel coordinate system flame hole center point coordinate and the vertex coordinate of anchor frame;According to the vertex coordinate of anchor frame, judge whether the opening degree of flame hole is normal;With flame hole center point coordinate as target, drive measuring rod inserts into flame hole mouth;According to the time when measuring rod enters different interface according to different stress;According to the time when measuring rod enters different interface, calculate the electrolyte level data and molten aluminum level data of target aluminum electrolytic cell;After measuring rod touches bottom and stays reach preset time, measure the electrolyte temperature data in target aluminum electrolytic cell;According to moment data, calculate the molten aluminum fluctuation of target aluminum electrolytic cell in preset period.The scheme of the present disclosure improves the measurement accuracy and adaptability of aluminum electrolytic cell.

The present invention discloses a battery cover (100) with fail-safe ionic conductivity isolation for flooded lead-acid batteries, comprising a bottom plate (110) with a plurality of through holes (112) and channels (116) facilitating electrolyte refilling and gas egress A main channel (114) on the bottom plate (110) receives replenished electrolyte, distributed via the plurality of channels (116). The top plate (120) mates with the bottom plate (110) to conceal the channels and through holes. A flow regulator assembly (130) selectively controls electrolyte flow, including options for manual or electric operation. Float-cum-level indicators (140) in the through holes provide real-time electrolyte level indication. The vent (150) includes a flame arrestor to ensure safety. This design offers advantages such as precise electrolyte distribution, enhanced safety through gas egress management, and real-time electrolyte level monitoring, ensuring optimal battery performance and longevity.

The utility model discloses a kind of aluminium electrolytic cell liquid level height measuring devices, including electric push rod and the pull rope displacement sensor of detecting electric push rod elongation amount installed on external support, the telescopic end of electric push rod is equipped with measuring casing, the bottom of measuring casing is equipped with measuring probe, measuring probe is connected anode busbar by wire assembly, wire assembly includes measuring wire and connecting wire, measuring wire is located inside measuring casing, measuring wire electrically connected measuring probe and connecting wire, the end of connecting wire away from measuring wire and anode busbar electrically connected. The aluminium electrolytic cell liquid level height measuring device can detect electrolyte level and aluminium water level, and can also be used to detect parameters such as polar distance and electrolyte resistance, and detect the temperature of electrolyte and aluminium liquid. It does not require human intervention, can eliminate the interference of human error, can also save manpower, improve work efficiency and is easy to use.

This invention relates to the field of battery analysis technology, and more particularly to a highly transparent pouch battery, its preparation method, and a method for observing internal battery reactions. This pouch battery includes a cell and a packaging bag, the packaging bag being formed by encapsulating a transparent packaging film. The packaging bag contains a mounting cavity for accommodating the cell and an observation cavity communicating with the mounting cavity. The observation cavity is formed by the packaging film itself, and the communication channel between the mounting cavity and the observation cavity is formed by the packaging film adhering to but not fusing with the film. Electrolyte fills the mounting cavity and the observation cavity. This invention uses a transparent packaging film, enabling observation from any angle and avoiding interface mismatch problems between different materials. Simultaneously, the built-in observation cavity, based on the principle of shared electrolyte, allows changes in the electrolyte level within the observation cavity to directly reflect the degree of absorption or consumption of electrolyte by the cell, achieving effective observation of the electrolyte state inside the cell.

The present application belongs to the field of electrochemistry, and particularly relates to a vanadium flow battery and a method for keeping the positive and negative electrolyte of the vanadium flow battery balanced. The vanadium flow battery comprises a positive electrolyte tank and a negative electrolyte tank, a balance pipeline is arranged between the two tanks, and the two tanks are also connected through an overflow pipeline. The overflow pipeline is located at a predetermined threshold height above the positive or negative electrolyte level to achieve that, during the charging and discharging process, the positive electrolyte level exceeding the predetermined threshold height overflows into the negative electrolyte tank, or the negative electrolyte level exceeding the predetermined threshold height overflows into the positive electrolyte tank. During the charging and discharging, if the electrolyte level of either side is higher than the specified threshold, it will automatically flow to the other side through the overflow pipeline, so as to realize the automatic adjustment of the liquid level at any time. When needed, the quick liquid level balance between the positive electrolyte tank and the negative electrolyte tank can be realized by opening the balance pipeline, and the partial ion concentration difference and the partial charge capacity can be restored.

The embodiment of the invention discloses an air cylinder pendulum shaft support for aluminum electrolysis and an aluminum electrolysis cell, the air cylinder pendulum shaft support for aluminum electrolysis comprises a mounting plate, a lifting assembly, a supporting structure and a guide mechanism, and on the basis, in the using process, the mounting plate is arranged on an electrolysis cell body, an air cylinder is connected to the supporting structure, and a crust breaking hammer is connected to a steel claw on the air cylinder. The crust breaking hammer head can penetrate through the mounting plate through the hollow part of the mounting plate, and the height of the crust breaking air cylinder can be adjusted according to actual production in the working process, so that the actual production requirement is met. When the electrolyte level rises, the lifting assembly can be started to drive the supporting structure to rise, and then the air cylinder and the crust breaking hammer head are driven to rise by taking the chamber of the electrolytic cell as a reference substance; the lifting assembly drives the supporting structure to descend, then the crust breaking hammer head is driven to descend, the service life of the crust breaking hammer head and the crust face punching effect are guaranteed, adjustment and control are convenient, operation is safe, and the physical strength of workers is saved.

The battery module according to the present invention comprises: a battery cell; a module case in which the battery cell is accommodated and which has a discharge hole for discharging the electrolyte leaked from the battery cell; and an electrolyte discharge control device configured to block the discharge hole, and to open the discharge hole for a predetermined time and then block the discharge hole when the electrolyte level in the module case rises.

The utility model relates to the technical field of anode scrap electrolyte cleaning, in particular to an electrolyte horizontal cleaning machine which comprises a cleaning base, two opposite cleaning frames are arranged at the top of the cleaning base, and a guide rod moving channel for an electrode guide rod to penetrate through is arranged between the two cleaning frames. And a clamping mechanism for clamping the upper side of the electrode guide rod is arranged at the top of any one cleaning frame. Electrolyte among the three steel claws can be broken at a time through the three horizontally-arranged hydraulic breaking hammers, in addition, the electrolyte which is not hammered can be vibrated to be loose or fall off through vibration, meanwhile, the steel claw positioning mechanism is matched with the clamping mechanism to complete positioning and fixing of an electrode guide rod, and therefore the anode scrap can be effectively positioned, and the electrode guide rod is damaged.

In an aspect, provide is an alkaline rechargeable battery comprising: i) a battery container sealed against the release of gas up to at least a threshold gas pressure, ii) a volume of an aqueous alkaline electrolyte at least partially filling the container to an electrolyte level; iii) a positive electrode containing positive active material and at least partially submerged in the electrolyte; iv) an iron negative electrode at least partially submerged in the electrolyte, the iron negative electrode comprising iron active material; v) a separator at least partially submerged in the electrolyte provided between the positive electrode and the negative electrode; vi) an auxiliary oxygen gas recombination electrode electrically connected to the iron negative electrode by a first electronic component, ionically connected to the electrolyte by a first ionic pathway, and exposed to a gas headspace above the electrolyte level by a first gas pathway.

The utility model provides an electrolyte defoaming and recycling device, and belongs to the technical field of lithium battery production. An electrolyte defoaming and recycling device comprises a vacuum source A, a nitrogen source A, an electrolyte raw material tank, a buffer tank A and a buffer tank B. The upper portion of the electrolyte raw material tank is connected with the vacuum source A and the nitrogen source A through a main pipeline 1, wherein the vacuum source A and the nitrogen source A are connected in parallel. A valve F13 is arranged on the main pipeline 1; a valve F11 and a valve F12 are respectively arranged on parallel pipelines of the vacuum source A and the nitrogen source A; the electrolyte raw material tank is in pipeline connection with the buffer tank A and the buffer tank B which are connected in parallel through a main pipeline 2, the main pipeline 2 extends below the electrolyte liquid level in the electrolyte raw material tank through a valve F31, and a valve F32 and a valve F33 are respectively arranged on the pipeline in which the buffer tank A and the buffer tank B are connected in parallel. According to the electrolyte recycling device, bubbles in the electrolyte are efficiently eliminated while the electrolyte is recycled, the efficiency in the production process is improved, particles in the electrolyte are reduced, and the production quality is improved.

The invention relates to the technical field of battery management, in particular to a battery cluster electrolyte liquid level monitoring method and system. The technical problems that an existing monitoring method cannot adapt to complex and changeable working conditions of a battery system, and the liquid level of the electrolyte cannot be estimated and monitored when the physicochemical property of the electrolyte changes along with factors such as an electrolyte formula, environment temperature and the battery aging state are solved.

The invention provides a heat balance control method for ensuring low consumption and high efficiency of a graphitization electrolytic cell, and relates to the technical field of electrolytic cells. The heat balance control method for ensuring low consumption and high efficiency of the graphitization electrolytic cell comprises the following steps: a first stage: coating the bottom of the electrolytic cell with a heat insulation coating, and adjusting the aluminum level to 18-20cm; in the second stage, (a) the set voltage is reduced, and the polar distance is adjusted to 4.5-4.9 cm; (b) increasing the electrolyte level to 18-30 cm; (c) increasing the thickness of the thermal insulation material to 20-25cm; (d) adjusting the thickness of the thermal insulation material on the electrode to be 2-3cm more than the thickness of other electrolytic cells; a third stage: (a) reducing the molecular ratio to 2.4-2.6; (b) reducing the temperature of the tank to 945-955 DEG C; and (c) adjusting the aluminum production rate to be 30-32 t / month. Heat balance can be well controlled during aluminum production, and efficient, low-consumption, stable and safe production of the electrolytic cell is achieved.