1328 results about "Mold removal" patented technology

This invention discloses a two-color injection molding process for Tritan material, belonging to the field of injection molding technology, which solves the problem of easy delamination and fusion lines in two-layer injection molding of the same Tritan material. The injection mold used in this process includes a male mold, a first injection mold, and a second injection mold. The workpiece includes a transparent inner layer and a transparent outer layer. The steps include: S1. Injecting molten Tritan raw material into the first injection mold heated to 100-130°C to form a transparent inner layer; S2. Cooling the first injection mold to 35-50°C, after mold opening, the transparent inner layer remains in the male mold and rotates 180 degrees to close with the second injection mold, so that the residual temperature of the transparent inner layer is maintained at 35-50°C; S3. Injecting molten Tritan raw material into the second injection mold heated to 100-130°C to form a transparent outer layer on the outer wall of the transparent inner layer; S4. Cooling and solidification; S5. Demolding. This invention achieves molecular chain diffusion and entanglement at the interface of inner and outer layer materials by precisely controlling the temperature of two injection molding processes, resulting in a product with strong interlayer bonding, high transparency, and rich visual effects in a single molding process.

This invention provides a demolding method for silicon carbide ceramic parts, belonging to the field of silicon carbide sintering and molding technology. The invention involves molding silicon carbide powder to obtain a silicon carbide green body; sintering the silicon carbide green body to obtain a silicon carbide sintered green body, the sintering being carried out in a graphite mold; and subjecting the silicon carbide sintered green body to sequential gradient cooling and natural demolding to obtain the silicon carbide ceramic part; the gradient cooling includes sequential high-temperature cooling, medium-temperature cooling, and low-temperature cooling. This invention provides a demolding method for silicon carbide ceramic parts that utilizes the difference in thermal expansion coefficients between graphite and silicon carbide. Through precise temperature control and gradient cooling, the radial shrinkage of the graphite mold is greater than that of the silicon carbide sintered green body, creating a gap between the graphite mold and the silicon carbide sintered green body, achieving non-destructive, automatic, and rapid separation without the need for external mechanical force, thus improving product yield and mold reuse rate.

This invention relates to the field of intelligent monitoring technology, and discloses an intelligent monitoring system and method for injection molding processes using injection molds. The system includes: acquiring synchronous operation signals from mold opening to the ejection window, mapping their time series to an ejection relative stroke reference system constructed based on the ejector plate displacement; calculating the deflection resistance trajectory bending degree based on the normalized derivative transformation of the extracted force relative to the relative stroke reference system; extracting morphological parameters and demolding work offset, and combining them to construct a state vector; constructing a classification space using a reference sample library, and optimizing a preset classifier using a particle swarm optimization algorithm; inputting the state vector to be measured into the classifier to output the continuous anomaly probability and the abnormal fluctuation work amount; and finally calculating the work concentration point and mapping it to the corresponding mold condition node. This invention can overcome the limitations of the time domain and rigid thresholds, identify abnormal demolding actions within a very short window early, and achieve precise positioning.

The utility model discloses ton barrel production blow mould, including plastic particle melting mechanism, plastic embryo extrusion mechanism, replaceable mould cavity unit and blow moulding mechanism. Plastic particle melting mechanism is transported to embryo extrusion mechanism through spiral feeding stem with the molten plastic, and the embryo is cut off and falls into the upper and lower barrel body mould cavity, and blow moulding is completed through the cooperation of blow moulding mechanism by the rotation disc movement, and then the finishing and stripping of the finished product are completed through the turn after the selvedge finishing mechanism and stripping mechanism. Cooling water channel is equipped in the mould cavity to accelerate the cooling speed, and the upper and lower barrel body mould cavities realize locking through the wedge block drive of hydraulic cylinder. The device realizes the continuous, efficient blow moulding of ton barrel barrel body structure.

This utility model relates to the field of mold processing technology and discloses a casting mold clamping fixture, including a shell, a mold body is disposed inside the shell, and an ejection assembly is disposed on the inner wall of the shell. The ejection assembly includes a mounting groove, which is opened in the inner wall of the shell. A lead screw is rotatably connected inside the mounting groove. One end of the lead screw is fixedly connected to a shaft, and one end of the shaft is fixedly connected to a throttle. An internal threaded block is threaded to the external thread of the lead screw. A support rod is hinged to the upper surface of the internal threaded block, and a movable plate is hinged to one end of the support rod. This utility model lifts the movable plate by linking the throttle with the support rod, and the spring thrust is transmitted through the push plate, facilitating the ejection of the mold. It eliminates the need for a motor drive, reduces the risk of electrical failure, simplifies the demolding process, and is equipped with a bidirectional opposing clamping mechanism. Through the synchronous approaching movement of the clamping frames on both sides, the mold is laterally positioned, thereby enhancing the installation stability.

This invention discloses a high-quality aluminum alloy sheet continuous casting device, belonging to the technical field of casting devices. It includes a worktable with a mounting plate rotatably mounted on it. This design utilizes a push rod. After the sheet material has cooled, the drive assembly rotates the sheet material under the push rod via the mounting plate. As the mounting plate moves the feeding pipe downwards, it further moves the push rod downwards, applying a downward thrust to the sheet material. Under this thrust, the sheet material moves downwards and falls onto a conveyor belt. The conveyor belt then transports the cast sheet to the next process. A spring then drives the top plate to reset and re-seal the casting tank, eliminating the need for time-consuming unloading and demolding. Furthermore, as the mounting plate rotates, the demolded casting tank moves back under the feeding pipe, thus achieving continuous casting and improving production efficiency.

This invention relates to the field of ecological building materials technology, and discloses a biodegradable mold for preparing honeycomb porous concrete. The mold includes a horizontally positioned base plate and four side plates vertically surrounding the perimeter of the base plate. The upper surface of the base plate has several vertically upward-pointing cylindrical protrusions, the tops of which are flush with the tops of the side plates, arranged in a regular hexagonal honeycomb matrix. The mold is made of 100 parts of edible-grade corn starch, 20-40 parts of deionized water, and 2-8 parts of food-grade glycerin. This invention, by combining a starch-based substrate with deionized water and food-grade glycerin, improves the mold's compressive strength and ensures the precision of pore formation. The mold eliminates the need for demolding and degrades in natural soil to generate monosaccharides, providing a carbon source for the early growth of internal plants. The integrated hot-pressing structure of the base plate and protrusions eliminates seams, preventing joint leakage and deformation during vibration compaction and ensuring the interconnected porosity of the porous concrete.

The utility model relates to injection mold technical field, concretely is a charger shell injection mold, including female die and male die, the female die one side side wall is established with taper groove, and the one side of taper groove is provided with taper top block. The utility model, through setting taper groove and taper top block cooperation uses, can fill in the taper groove when using, and the taper top block can fill in the taper groove, when demolding, the taper top block can be jolted by the ejection drive assembly, so that the taper top block can jolt the product after injection molding is completed, and then complete demolding, and when jolt the taper top block, only need the taper top block to move a little position, and the taper top block will separate from the taper groove, and then when the taper top block continues to move, the taper top block will not rub with the inner wall of taper groove, and then make the gap between the taper groove and the taper top block not increase because of friction, so that in long time use, the device is not easy to produce the phenomenon of overflow edge.

This utility model provides a casting fixture for producing brake housings, relating to the field of casting technology. It includes a top plate, with support columns fixedly connected to the bottom and near the four corners of the top plate. A liquid storage tank is fixedly connected through and to the center of the top plate. An upper mold plate is fixedly connected to the bottom of the liquid storage tank. A solenoid valve is fixedly installed at the connection between the liquid storage tank and the upper mold plate. A connecting plate is fixedly connected between the two support columns near the bottom. A hydraulic cylinder is fixedly connected to the top of the connecting plate near the center. A lower mold plate is embedded in the bottom of the upper mold plate. Fixed plates are symmetrically fixedly connected to the surface of the lower mold plate. In this utility model, the casting fixture is equipped with an elastic buffer structure composed of vertical rods, limiting rods, a circular disc, and springs. Combined with power components such as hydraulic cylinders, it can quickly and smoothly push the brake housing out of the mold, significantly shortening the demolding time and improving production efficiency.

This invention provides a core-pulling device for injection molds, belonging to the field of injection mold technology. The device includes a base and a guide assembly mounted on the base. A lower slide block and an upper slide block are slidably mounted on the guide assembly. It also includes a demolding assembly mounted on the upper slide block. The demolding assembly includes multiple demolding modules slidably mounted within the upper slide block. The upper slide block has a demolding cavity that cooperates with the demolding modules. Guide teeth are provided at the lower end of each demolding module, and push blocks that cooperate with the guide teeth are provided on the upper surface of the lower slide block. By incorporating retractable demolding modules, this invention transforms the continuous contact interface between the slide block and the product from a large-area surface contact to a localized discrete contact during the initial core-pulling stage. Combined with air duct ventilation to break down interface negative pressure and adhesion effects, this invention solves the problems of difficulty in effectively breaking the contact interface between the slide block and the product, concentrated initial demolding resistance, and uneven release in existing technologies, significantly reducing the initiation resistance of core-pulling.

This invention relates to the field of aluminum alloy parts processing technology, specifically disclosing a die-casting molding device for aluminum alloy parts. The device includes a base, a support frame fixedly mounted on the top of the base, and a forming table fixedly mounted on the top of the support frame. During application, by linking a first demolding mechanism with the output end of a hydraulic cylinder, demolding can be completed synchronously during mold opening and closing, eliminating the need to wait for an additional demolding start signal. The device utilizes a sleeve and lower connecting rod with a movable structure to allow for space during initial mold closing and opening, ensuring the mold closing process is not interfered with by the demolding structure. Furthermore, by setting the engagement timing of the second rack and second gear, the pushing action can be initiated only after the part has completely detached from the fixed mold, preventing jamming caused by premature contact of the pushing frame with the part. This ensures a smooth transition between demolding and pushing actions, accelerating the overall production pace.

The present application belongs to the technical field of injection molding, and relates to a method for improving the injection molding demolding of an LED support, comprising the following steps: providing an injection molding mold for forming the LED support; performing texture processing on the inner surface of the cavity of the injection molding mold, and then performing polishing processing; preparing a fluorine compound coating on the inner surface of the cavity after the polishing processing; and performing injection molding demolding of the LED support. The present application constructs micro concaves through texture processing, reduces the actual contact area of the product and the mold, and reduces physical adsorption. After the polishing processing, the texture defects are eliminated, the edges of the concaves are smoothed, the surface finish is improved, and adhesion deformation caused by local stress is avoided. Finally, a fluorine compound coating is formed on the surface of the cavity, ensuring the consistency and long-term effectiveness of the demolding effect, and avoiding the electrostatic adsorption of dust during the forming of the LED support, which does not affect the electrical performance of the support. The synergistic strategy is conducive to improving the demolding effect of the LED support.

It is possible to reduce manufacturing costs and manufacturing time. [Solution] The mold is configured to be separable into a mold body and a separate mold at the step-dividing surface, and to be connectable between the mold body and the separate mold. In the method for manufacturing a fiber-reinforced composite member, a fiber base material is laminated on the separated mold body to the height of the step, the end of the fiber base material protruding from one end of the mold body on the step side is trimmed to match one end of the mold body, the separate mold is connected to one end of the mold body, a further fiber base material is laminated on the outer surface of the fiber base material laminated on the mold body and on the outer surface of the separate mold which is aligned in the same plane as the outer surface to form a first laminated fiber base material, the mold body and the separate mold are released from the first laminated fiber base material, a separate fiber base material is laminated and connected to cover the step portion of the first laminated fiber base material to form a preform, and a fiber-reinforced composite member is formed by impregnating the preform with resin.

This invention relates to the field of mold technology, specifically to an injection mold for an automotive lamp cover. The mold includes an upper mold with a core and a lower mold with a through-hole. A double-cavity flipping structure is rotatably connected within the slot. The lower mold contains a drive structure for rotating the double-cavity flipping structure. An ejector structure is located within the double-cavity flipping structure. When the double-cavity flipping structure rotates, it drives the ejector structure to move downwards and eject the injection-molded automotive lamp cover. The double-cavity flipping structure enables synchronous alternation between demolding and injection, shortening the production cycle and changing the traditional method of waiting for a single injection and demolding before proceeding to the next injection. This improves equipment utilization efficiency and effectively increases production efficiency.

This application relates to the technical field of casting demolding equipment, and discloses an ingot mold demolding device. The device includes an ingot mold that can be directionally flipped, an air supply cylinder and air supply connector set at the demolding station corresponding to the ingot mold, a sealing component, a desealing component, and an ejection mechanism. By driving the ingot mold to flip to the demolding station, the air supply connector is connected to the air guide seat, thereby triggering the desealing component to release the sealing state and introduce pressurized gas. The pressurized gas first acts on the ejection mechanism, causing the push plate to move axially along the ingot cavity towards the opening of the ingot cavity. Then, the displacement of the push plate triggers the pressurized gas to be ejected from the air outlet, realizing the sequential linkage of mechanical ejection and gas-assisted demolding. The device locks the demolding power and spatial station correspondence through a physical displacement trigger chain, ensuring synchronous and reliable operation, while eliminating problems such as premature air circuit opening, gas leakage, and damage to the ingot surface. It is suitable for stable demolding operation in high temperature, vibration, and dust environments.

This invention relates to the field of gearbox housing processing technology, and more particularly to a die-casting molding device for automotive gearbox housing processing. The device includes a base on which a die-casting mechanism is mounted for die-casting automotive gearbox housings. The die-casting mechanism includes: a mold assembly comprising a base mounted on the base, a fixed mold fixed to the front end of the base, a movable mold mounted on the base, a push plate slidably installed inside the fixed mold, and a push rod fixed to the front end of the push plate; and a linkage assembly comprising a guide seat fixed to the rear end of the push plate, guide grooves on both the left and right sides of the guide seat, a guide straight groove at the front end of the guide grooves, and sliding rods slidably mounted through both ends of the base. The device achieves sequential linkage between locking and demolding, with unlocking preceding ejection to avoid motion interference. The locking head angle and position are adjustable, offering strong adaptability and high assembly precision. Synchronous driving from both sides ensures stable locking alignment and smooth, reliable operation.

This utility model discloses a mobile flipping demolding machine, comprising a demolding mechanism, a moving mechanism, and a support body. The demolding mechanism includes a flipping mechanism and a mold. The flipping mechanism includes a mold lifting assembly and a geared motor. The mold lifting assembly includes a first mold lifting rod and a first mold lifting seat connected together, as well as a second mold lifting rod and a second mold lifting seat. The geared motor is mounted on the first mold lifting seat, which has a bearing seat corresponding to the output shaft of the geared motor. The output shaft passes through the bearing hole of the bearing seat, and the end of the output shaft is fixedly connected to one end of the mold. The other end of the mold is rotatably connected to the second mold lifting seat. The moving mechanism includes a moving motor and traveling wheels. The traveling wheels are located at the bottom of the support body, and the motor shaft of the moving motor is connected to the traveling wheels. This allows for direct production on open ground at the construction site, eliminating the need for large structural components, avoiding high transportation costs, and eliminating the need for numerous supporting equipment in conventional block making machines, as well as the costs associated with pallets and repairs.

This invention relates to the field of utility pole technology, specifically a method for manufacturing a concrete utility pole, comprising a reinforcing cage and an outer concrete layer. The method is as follows: (1) Weighing and mixing various raw materials according to the required weight proportions to prepare concrete; (2) Placing the reinforcing cage in a utility pole mold and pouring the concrete into the mold; (3) Vibrating, centrifuging, allowing the mold to stand, demolding, and curing the utility pole to obtain a concrete utility pole. The concrete is composed of the following materials mixed in the indicated weight proportions: cement, sand, 05# gravel, 10# gravel, 100-mesh aluminum powder, 100-mesh ferric oxide powder, 05# ceramic tile shell, and water, which are then mixed and solidified. Such a utility pole has the advantage of better strength.

This invention discloses a rotary demolding device for an expansion tank, comprising a mold body, which includes a lower mold, a template mold, and an upper mold. The lower mold has a first mounting groove, and the upper mold has a second mounting groove. When the lower mold and the upper mold are combined, the first and second mounting grooves form a complete assembly cavity. The template mold is installed within the assembly cavity. The interior of the mold body contains a threaded forming component and a transmission assembly, while the exterior contains a drive assembly. The transmission assembly is connected to the threaded forming component and the drive assembly. The drive assembly includes a motor, a transmission box, a rack, and a drive gear. The transmission box is bolted to the exterior of the mold body. One end of the rack extends into the transmission box and is linked to the motor via the drive gear, while the other end extends along the exterior of the mold body and is linked to the transmission assembly. This invention has the advantages of compact structure and high mold assembly efficiency.

This application provides a demolding structure and a mold. The demolding structure includes a rotating component, a push rod component, and a core-pulling rod assembly. The rotating component is rotatably connected to the moving mold of the main mold at its center along its extension direction. The first end of the push rod component and the first end of the core-pulling rod assembly are respectively connected to the two ends of the rotating component along its extension direction. The second end of the push rod component is used to connect to the stationary mold of the main mold, and the second end of the core-pulling rod assembly is connected to the local mold. When the demolding structure is in the demolding state, the push rod component moves in a first direction under the drive of the stationary mold, and the push rod component drives the rotating component to rotate, so that the core-pulling rod assembly moves along a second direction and demolds the local mold. This demolding structure solves the problem of inconsistent demolding directions between the main mold and the local mold, improves demolding efficiency, and improves the processing quality of the mold.

This utility model discloses a ceramic integrated molding device for ceramic processing, including a base, several columns on the base, a common top seat on the top of the columns, a hydraulic cylinder on the top seat, a pressure plate on the telescopic end of the hydraulic cylinder, a mold head on the bottom end of the pressure plate, and a pneumatic cylinder on the base. In this utility model, through the rotational connection between the first mold and the second mold and the telescopic shaft of the pneumatic cylinder, and the movement of the first positioning shaft and the second positioning shaft within two inclined grooves, when the pneumatic cylinder extends, the first and second positioning shafts, guided by the V-shape of the two inclined grooves, achieve the opening effect of the first and second molds at that location, thereby achieving the demolding effect after ceramic molding. Simultaneously, the extension of the pneumatic cylinder drives the first and second molds to move, pushing the molded ceramic towards the outside of the device, effectively avoiding the risk of manual removal from inside the device and improving operational safety.

This invention relates to the field of automotive rearview mirror component processing technology, and particularly to an injection molding equipment for automotive rearview mirror component processing, comprising: an injection molding machine and an injection mold; the injection mold includes a fixed mold group, a moving mold group, and a core-pulling mold group. After the injection molding process is completed, the core-pulling mold group is first pulled out from the injection cavity. When the moving mold group and the fixed mold group are separated, the floating mold group drives the formed rearview mirror component to float upward in the vertical direction for demolding. It adopts a combination structure of a fixed mold core, a main mold core, two sets of sliding mold cores, and an integrated floating mold core. The sliding mold cores are spliced ​​to form a complete fixed mold injection groove, which accurately fits the arc contour and complex structure of the rearview mirror component. The floating mold core is connected to the convex head-positioning groove of the core-pulling mold core through the arc-shaped core head. With the expansion and contraction compensation of the support spring and the bellows body, it not only ensures the sealing of the injection cavity, but also realizes vertical upward floating during demolding, realizing the automatic unloading of the formed rearview mirror component rearview mirror support frame.

To detect fluids inside a mold without modifying the mold itself. [Solution] The fluid detection device according to the present disclosure comprises a mold that forms a cavity corresponding to the shape of a product, an opposing component positioned at a predetermined location opposite to the fluid flowing through the cavity, an ultrasonic sensor provided on the side of the opposing component opposite to the side facing the fluid, and a measuring device that determines when the molten metal has reached a predetermined position based on the change in the ultrasonic waveform of the ultrasonic sensor. The opposing component is at least one of a replaceable insert of the mold, an ejector pin that protrudes toward the cavity when removing the product from the cavity, and a cast-out pin that is inserted into the cavity from the opening of the cavity.

The utility model discloses an injection mold with automatic stripping mechanism relates to injection mold technical field, including lower fixed plate and upper fixed plate, the outside of vertical board is equipped with the ram plate of sliding cover, is provided with pull rod on the pull -out board, the top surface of ram plate is provided with the ram rod of equidistance even distribution, ram rod vertical extension penetrates the bearing plate and extends to the inside of male die kernel. The utility model discloses the ingenious combination of vertical board, ram plate, pull -out board, pull rod and ram rod has realized the stripping of plastic part without setting up hydraulic system, and ram plate can move along the guide of sliding block and sliding slot under the pull of pull rod, thereby drives ram rod and ejects plastic part from male die kernel, and this design simplifies the mould structure, reduces the cost, and also improves the reliability and efficiency of stripping.

This utility model discloses a processing mold with a rapid calibration mechanism, including a base box. Guide rods are fixedly connected to the left and right sides of the top of the base box. A top plate is fixedly connected between the top ends of the guide rods. An electric push rod is fixedly connected to the center of the top of the top plate. A connecting block is fixedly connected to the output end of the electric push rod. Second hinge rods are hinged to the left and right sides of the outer wall of the connecting block. A first hinge rod and a third hinge rod are hinged to the end of the second hinge rod away from the connecting block. This utility model first employs a multi-hinged linkage mechanism driven by an electric push rod to achieve precise upper mold pressing and synchronous demolding. The guide rods and sliding connecting blocks ensure motion stability, the spring ejection mechanism achieves automatic demolding, and the integrated feeding system reduces manual intervention. The structure is compact and easy to operate, suitable for high-precision continuous production, significantly improving processing efficiency and automation level, and enabling rapid mold calibration and automatic demolding.

This invention relates to the field of mechanical parts casting technology, and more particularly to a mechanical parts casting and forming equipment. The technical solution includes: a frame, and a moving mold I, a fixed mold, and a moving mold II that can slide relative to the fixed mold mounted on it. The moving mold I is driven by a hydraulic rod. The equipment also includes a connecting assembly, a driving assembly, a linkage assembly, an ejection assembly, a transmission assembly, and a clamping and ejection assembly that are sequentially linked. In this invention, the moving mold I, as the sole active force source during mold opening and resetting, first pulls the driving assembly through the connecting assembly, forcing the moving mold II to retract and complete a secondary mold opening. The action of the driving assembly is then transmitted to the ejection assembly through the linkage assembly, ejecting the casting from the moving mold II. Simultaneously, the displacement of the moving mold I drives the transmission assembly, which in turn drives the clamping and ejection assembly to rotate to the ejection position, automatically clamping and receiving the ejected casting. Through pure mechanical linkage, multiple processes are integrated into a single continuous action, improving the efficiency and reliability of demolding and part removal.