60 results about "Flexible tanks" patented technology

A flexible tank has a volume-variable chamber formed so as to be sectioned by a flexible tube that is expanded or contracted in accordance with the amount of the contained chemical liquid, and adaptor parts attached to the flexible tube. A primary-side port open to the volume-variable chamber is open into one of the adaptor parts, and a secondary-side port open to the volume-variable chamber is open into the other adaptor part. The contact between the chemical liquid and air in the volume-variable chamber is suppressed to minimum level, thereby containing the chemical liquid without deteriorating the cleanliness of the chemical liquid, and improving discharge accuracy of the chemical liquid.

An internal baffle apparatus for use within tanks, in particular flexible tanks, for liquids for dampening surges of liquid, and tanks having such baffle apparatus, wherein the baffle apparatus comprising a plurality of panel members connected along a connection line that defines an axis wherein said panel members extend radially from the axis such that each panel member is oriented in a radial plane, and each panel member having a bottom edge, a top edge portion and a remote edge opposite the axis, wherein the bottom edge of each panel includes first connector means operable for connecting the bottom edge at a plurality of connection points to the bottom wall of the tank, and the top edge portion includes second connector means located remote from the axis that are operable to connect the top edge portion to an upper part of the tank.

A connection arrangement for detachably connecting a first flexible tank and a second flexible tank in an aircraft includes a latching device, a first tubular connecting element attached to the first tank, and a second tubular connecting element attached to the second tank. The first and the second connecting elements are detachably connected to each other using the latching device. In a connected state of the connecting elements, fluid exchange can take place between the first and the second tanks via the first and the second connecting elements, the latching device is disposed inside one of the first and second flexible tanks and is actuatable from outside the respective flexible tank.

The present invention discloses an ultra-deep mine hoisting system multi-functional simulation test platform and an experimental method. The test platform comprises a frame which comprises a main frame, a sub frame, and a top layer frame. A driving device is installed on the sub frame. A rope adjustment device is arranged on the top layer frame. One end of a hoisting rope is wound on the reel of the driving device. One end of the hoisting rope passes through a rope adjustment device guide wheel and is connected to a hoisting container. A rectangular guide rail is installed on the main frame. The driving device drives the hoisting container through the hoisting rope to move up and down along the rectangular guide rail. When the guidance of the hoisting container by a flexible tank channel is simulated, a tension rope is installed on the main frame, the driving device drives the hoisting rope to drive the hoisting container to move up and down along the tension rope, two ends of the tension rope is provided with tension devices, and detection control systems are installed in the hoisting container, the rope adjustment device and the driving device. According to the ultra-deep mine hoisting system multi-functional simulation test platform and the experimental method, the ultra-deep mine hoisting equipment motion state in a real condition can be simulated, and the main performance parameters of hoisting equipment in a fault condition are obtained.

An apparatus for level measuring in a flexible tank with a level sensor for non-contact detection of the level of the liquid in the tank, which detects the surface of the liquid across a flexible wall of the tank, and means for holding the level sensor in a position above the flexible wall of the tank.

Embodiments of the present invention relate generally to reinforcement materials for use in reinforcing flexible tank walls, and particularly to hybrid textiles and weaving patterns that have been found particularly useful with such hybrid textiles.

A mounting device (10c) for mounting a flexible tank (1c) inside a compartment (2c), said fastening device (10c) comprising: a plurality of first fastening elements (11, 11′) secured to said flexible tank (1c), a plurality of second fastening elements (12) secured to said compartment (2c); and at least one cable (13a, 13b). Each cable (13a, 13b) passes through first fastening elements (11, 11′) and through second fastening elements (12) to shape and to mount said flexible tank (1c) inside said compartment (2c). Said mounting device (10c) further comprises at least one reversible tightening means (15a, 15b) for reversibly tightening said cable (13a, 13b), making it possible to tighten and to slacken said cable (13a, 13b).

A shipping container for flowable material including a large rigid shipping container and a flexible tank. The shipping container has a substantially rectangular cubic configuration with common attachment regions. The flexible tank is positionable within the rigid shipping container. The flexible tank includes a generally rectangular cubic configuration. At least certain dimensions of the flexible tank corresponding to dimensions of the large rigid shipping container so that the flexible tank has a generally form fit retention within the large rigid shipping container. The flexible tank further comprises a film which together with a plurality of seals defines a substantially rectangular cubic cavity. A dispensing means is provided which extends through the film for selectively placing the cavity in fluid communication with an outside dispenser. The film comprises a layer comprising a co-extruded blend of HDPE and TPE, to, in turn minimize oxygen transmission within the film.

Provided are a cultivating system for cultivating aquatic organisms including a load-bearing structure having a top portion with at least two top rims transverse to each other and defining a top portion, a bottom portion, and flexible tank adapted for receiving therein a growing medium and for cultivating therein aquatic organisms. Further, the tank can include at least two sidewalls extending such that at least in one cross-section taken along a plane perpendicular to said top portion, at least two of the sidewalls form a general V-shape converging towards the bottom portion. The system can also include a gas emitting arrangement linkable to a source of pressurized gas and comprising gas emitting nozzles disposed within the flexible tank at the bottom portion.

The present invention is a containment tank or a generator set including an outer tank and an inner flexible tank that offers a storage area for diesel fuel for a diesel engine powered generator set. So that the generator set diesel engine have ready source of clean diesel fuel the inner flexible tank provides a corrosion-free storage area that will not corrode or contaminate the diesel fuel. The outer tank is designed to provide a structure that not only protects the inner tank from damage, but acts as a support structure for the diesel engine generator set and other components (enclosure, switchgear, etc.) that are needed for the generator sets protection from wind, rain or snow or to act as control devices for diesel engine generator set. Also, since the design of the inner tank is flexible, it can be replaced easily through a manway formed on the outer tank without having to disconnect or disassemble the generator set.

A flexible storage container may have a first footprint when empty, and retracts to a second footprint when filled with a substance. A load sensing apparatus used for determining the volume of the substance in the flexible storage container can include a first set of load-sensitive sensors arranged in at least a region of the first footprint external to the second footprint, and a second set of load-sensitive sensors arranged within the second footprint. The sensor data from the load-sensitive sensors can be used to create a pressure level profile, and the volume of the substance contained in the flexible storage container can be calculated from the pressure level profile.

A specially designed flexible tank is installed in a standard 20 foot overseas shipping container or in a standard trucking dry van trailer. A conductive heat serpentine plastic tubing system is also installed underneath the flexible tank allowing heat to liquefy the honey near the bottom discharge location. Nitrogen is introduced through an upper air purging valve and flow is controlled by a regulator allowing tank to stand and not be conducive to cling of product on the roof or the sidewalls and to assist in discharging product without need of a pumping mechanism. Due to the continued shape of the flexible tank there will be very little product loss allowing virtually all product to be expelled. The discharge valve will remain open when the heat is started and this allows the honey to be removed as quickly as it becomes liquid. The method permits bulk shipped honey to be unloaded without substantial increase in HMF levels or air entrainment caused by pumping which could lead to crystallization, and avoids substantial product loss due to clinging on the inside of the tank. The invention also provides substantial labor savings along with freight savings compared to the prior honey industry method of shipping honey in 55 gallon drums.

A soft shell, flexible storage tank is provided, including corners of an improved configuration adapted to resist leaks. The walls of the tank and the corners are relatively more rounded and larger in radius than those of conventional flexible tanks. The walls and the improved corners act together to resist leaks. The rounded corners tend to reduce the effective pressure in the tank walls by loading the seams predominantly in shearing stress when the tank is filled with a liquid. The rounded corners are developed as panels, which are thermally bonded to produce secure and reliable liquid-tight seams. Each of the panels is bonded by lapped seams to others of the panels. Each of the rounded corners includes a generally triangular corner that is bonded to at least three other panels. In effect, the flexible storage tank functions as a pressure vessel, which tends to resist leakage.

The invention discloses an automatic temperature control flexible sucker moxibustion instrument which comprises a motor, a control circuit, a transmission mechanism, an executing mechanism, a tank body and a flexible tank bottom. The motor is connected with the transmission mechanism in a matched mode. The transmission mechanism is connected with the executing mechanism in a matched mode. The tank body is provided with an air outlet. The air outlet and the executing mechanism are mounted in a matched mode. The tank body is internally provided with a heat insulating hood. The tank body and the flexible tank bottom are mounted in a matched mode. The flexible tank bottom is provided with a plurality of air inlets. The tank body is internally provided with an ash prevention mesh and a plurality of temperature sensors. The motor is connected with the output end of the control circuit. The automatic temperature control flexible sucker moxibustion instrument is easy and convenient to use, capable of saving time and more comfortable to use.

Provided are a cultivating system for cultivating aquatic organisms including a load-bearing structure having a top portion with at least two top rims transverse to each other and defining a top portion, a bottom portion, and flexible tank adapted for receiving therein a growing medium and for cultivating therein aquatic organisms. Further, the tank can include at least two sidewalls extending such that at least in one cross-section taken along a plane perpendicular to said top portion, at least two of the sidewalls form a general V-shape converging towards the bottom portion. The system can also include a gas emitting arrangement linkable to a source of pressurized gas and comprising gas emitting nozzles disposed within the flexible tank at the bottom portion.

A device (D) for opposing sloshing in a flexible tank (21) provided with a top cushion (22) and having a bottom (23) and a plurality of sides (24), the device includes at least first and second ties (1 and 2). The first and second ties (1 and2) are secured respectively to first and second edges (221 and 222) of the cushion, with the first edge (221) being opposite from the second edge (222). The device is remarkable in that it includes main distributor elements (10) for blocking only one of the ties when the tension exerted on that tie is greater than the tension exerted on the other tie, the first and second ties (1 and 2) also being secured to the main distributor unit (10).

A tank liner clamp system for efficiently securing a flexible tank liner within a containment tank. The tank liner clamp system generally includes a clamp unit, a first member and a second member slidably connected to the clamp unit, and a clamping handle having a cam pivotally connected to the clamp unit. The first member includes a biasing member to bias the first member inwardly towards the second member. The clamping handle is pivoted causing the cam to engage and inwardly force the second member towards the first member.

A steel-bodied shipping container (10) having two lockable doors (24, 26), and at one of its ends has an insulation pad (32) positioned on its floor. A heat exchanger pad (40) having a hot water / steam hose (46) embodied therein is positioned on top of the insulation pad, with the inlet / outlet ends (48, 50) of the hose positioned near a first of the end doors. A flexible bladder (30) positioned on top of the heat exchanger pad, is pumped full of a material. The first door is locked and the shipping container shipped. At destination, hot water or steam is pumped through the heat exchanger pad to raise the temperature of the material within the flexible bladder, after which the material is pumped out of the flexible bladder.

The invention relates to a flexible underwater storage tank which is characterized by comprising hollow unit tank bodies, wherein each unit tank body comprises a flexible shell, and the flexible shell successively comprises a liner layer, a framework layer and an external protection layer from inside to outside; an oil inlet pipe and an oil outlet pipe communicated with the chamber in each unit tank body are arranged at the top of each unit tank body. The flexible underwater storage tank has the beneficial effects that the flexible underwater storage tank is combined and mounted in a form of unit bodies and solves the problem of oil pollution; the flexible tank bodies solve the problem of poor seawater ballast buoyancy, and the rubber flexible tank bodies can adapt to the corrosion of oil and has heating and heat preservation functions; a plurality of unit tank bodies can be connected in series and in parallel to realize single control; the flexible underwater storage tank has multiple leakproof safety protection designs, is not affected by the depth of seawater in the using process, can be suitable for various oil and gas fields, particularly can be reused for many times in marginal oilfield development, and significantly reduces the investment cost.

A flexible tank is used to transport bulk liquids or semi-liquid materials inside of a multi-modal shipping container. It has water proof inner layers and an outer layer, which are formed and welded together to have seams at both ends of the flexible tank. A discharge valve is provided at one end of the flexible tank and an additional piece of material, referred to as a cape, is attached at the other end of the flexible tank. The flexitable tank is situated in the container so that the end with the discharge valve is at the container opening and the end with the attached cape is at the rear of the container. The cape can be used by equipment positionable at the opening of the container to completely discharge the bulk liquids or semi-liquid materials from the flexible tank by pulling and winding up the cape and the layers of the flexible tank from the rear of the container.