CAMEL provides Zinc die casting mold manufacture service of development, design, processing. Zamak is the main material for mold. What is High Pressure Zinc Alloy Die Casting Molds The zinc die casting parts can reach a tolerance: 0.01mm~0.03mm as a requirement. It can be used in a wide range of industries. Like: Toys, lamps, decorations, Auto parts, Electromechanical parts, mechanical parts, electrical components, etc. Zinc alloy material with a low melting point, good fluidity, high strength, high hardness, high precision, and stability. Zinc die parts have good thin wall capability for mass production, and high corrosion resistance. Therefore, zinc alloy die casting is an ideal alternative to many industrial component materials. Commonly used zinc alloy grades: Zn 1#, Zn 2#, Zn 3#, Zn 5#, Zamak8#, etc. The Main Physical Characteristics Are As Below: Currently, We occupy 54,000 square feet with a workshop plant located at Huizhou City, And another plant 49,000 square foot workshop plant located at Dongguan City, China. Quantities of Major Machines： 15 sets of CNC Machining Centers 5 sets of EDM Machining 2 sets of Wire cutting 2 sets of CMM 2 sets of Projector 2 sets of Spot Machine Zinc alloy dies casting mold life depends upon the part/tool design, as well as the Tool steels used. Commonly Mold Steels Used: H-13, H-13, ESR, Assab 8407, Bohler W302, and Assab 8418. etc. Take care all projects according to mold projects management system. CAMEL has been provided zinc die casting molds from custom zinc die casting tooling to middle-sized zinc die casting parts production, meanwhile including surface treatments service based on customers’ requirements, such as Plating chrome, Plating Tarnish, UV Coating, Powder coating, Painting, Anodizing, Blacking, Impregnating, etc. We run all metal products under ISO 9001:2015 and IATF 16949:2016. Die casting machines for mold trials ranging from 280 tons to 3000 tons ( 280T, 350T, 500T, 800T, 1250T,1650T, 3000T), Our capability from tooling design to build dies about 12-15 sets of big die casting dies per month. DFM ( 2 days) Moldflow Analysis (24 Hours) Mold Design (2-3 days) Weekly Tooling Schedule Mold Trial Mold Shipment Free Quote & Part Analysis → Die Casting Molds We Build: Trimming Die High-Pressure Zinc alloy die casting mold High-Pressure Aluminum alloy die casting mold High-Pressure Magnesium alloy die casting mold contact

CAMEL provides Zinc die casting mold manufacture service of development, design, processing. Zamak is the main material for mold. High Pressure Zinc Alloy Die Casting Molds The zinc die casting parts can reach a tolerance: 0.01mm~0.03mm as a requirement. It can be used in a wide range of industries. Like: Toys, lamps, decorations, Auto parts, Electromechanical parts, mechanical parts, electrical components, etc. Zinc alloy material with a low melting point, good fluidity, high strength, high hardness, high precision, and stability. Zinc die parts have good thin wall capability for mass production, and high corrosion resistance. Therefore, zinc alloy die casting is an ideal alternative to many industrial component materials. Commonly used zinc alloy grades: Zn 1#, Zn 2#, Zn 3#, Zn 5#, Zamak8#, etc. The Main Physical Characteristics Are As Below: Currently, We occupy 54,000 square feet with a workshop plant located at Huizhou City, And another plant 49,000 square foot workshop plant located at Dongguan City, China. Quantities of Major Machines： 15 sets of CNC Machining Centers 5 sets of EDM Machining 2 sets of Wire cutting 2 sets of CMM 2 sets of Projector 2 sets of Spot Machine Zinc alloy dies casting mold life depends upon the part/tool design, as well as the Tool steels used. Commonly Mold Steels Used: H-13, H-13, ESR, Assab 8407, Bohler W302, and Assab 8418. etc. Take care all projects according to mold projects management system. CAMEL has been provided zinc die casting molds from custom zinc die casting tooling to middle-sized zinc die casting parts production, meanwhile including surface treatments service based on customers’ requirements, such as Plating chrome, Plating Tarnish, UV Coating, Powder coating, Painting, Anodizing, Blacking, Impregnating, etc. We run all metal products under ISO 9001:2015 and IATF 16949:2016. Die casting machines for mold trials ranging from 280 tons to 3000 tons ( 280T, 350T, 500T, 800T, 1250T,1650T, 3000T), Our capability from tooling design to build dies about 12-15 sets of big die casting dies per month. DFM ( 2 days) Moldflow Analysis (24 Hours) Mold Design (2-3 days) Weekly Tooling Schedule Mold Trial Mold Shipment Free Quote & Part Analysis → Die Casting Molds We Build: Trimming Die High-Pressure Zinc alloy die casting mold High-Pressure Aluminum alloy die casting mold High-Pressure Magnesium alloy die casting mold contact

​Product Material: Zamak 3 Product Size (LxWxH): 115x124x51mm Qty Of Cavity: 1 Qty Of Slider: 2 Mold Type: 2-Plate mold Machine Tons: 400Ton Mold Size (mm): 440x440x470 Lead Time: 28 days ZINC DIE CASTING MOLD MANUFACTURER PRODUCT PARAMETERS Product Material: Zamak 3 Product Size (LxWxH): 115x124x51mm Qty Of Cavity: 1 Qty Of Slider: 2 Mold Type: 2-Plate mold Machine Tons: 400Ton Mold Size (mm): 440x440x470 Lead Time: 28 days

Product Material: ADC12 Product Size (LxWxH): 150x80x69mm Qty Of Cavity: 2 Qty Of Slider: 2 Mold Type: 2-Plate mold Machine Tons: 400Ton Mold Size (mm): 650x550x480 Lead Time: 32 days ALUMINUM DIE CASTING MOLDS PRODUCT PARAMETERS Product Material: ADC12 Product Size (LxWxH): 150x80x69mm Qty Of Cavity: 2 Qty Of Slider: 2 Mold Type: 2-Plate mold Machine Tons: 400Ton Mold Size (mm): 650x550x480 Lead Time: 32 days

This page shows our production control process, some examples of past work with die casting dies for Automotive industrial customers. AUTOMOTIVE INDUSTRIAL DIE CASTING MOLD ALUMINUM DIE CASTING MOLD FOR VOLKSWAGEN Product Material: AL380 Product Size (LxWxH): 173.68x175.17x54.32mm Product Size (LxWxH): 173.67x175.74x55.62mm Product Industry: Auto industry ( used for Top cover of auto air conditioning compressor) Qty Of Cavity: 2+2 Qty Of Slider: 0 Mold Type: 2-Plate mold Machine Tons: 550Ton Mold Size (mm): 880x720x470 Lead Time: 32 days READ MORE→ PROJECT DETAILS Project Management 1, RFQ & Quote CAMEL provide quote within 1-2 working days. And provide DFM and mold flow if needed. 2, DFM & Moldflow CAMEL provide DFM and Moldflow within 3 working days. 3, Mold Design & Design Review Usually 3D mold drawing for 1 set mold submit within 2-3 working days. and 3-5 sets mold drawing provide within 1 week . CAMEL do care about lead time. Design review to ensure all requirements completed and correctly before send out mold drawing . 4, Tooling Schedule & Week report CAMEL provide the first schedule within 24 hours after get customer approve for order& cut steel, and update scheudle with processing pictures on each Monday. And send project tracker with all sets molds status(Still processing) on each Thursday. 5, Trial Report & FAI Report Mold trial report will be provided within 24 hours after mold trial, there has picture showing the mold running status and sample's status in trial report, And provide trial video and parameter together. FAI report of casting sumbit within 72 hours after finish mold trial. 6, Sample approval and Mold Shipment 1) Provide X-ray inspecting report to ensure casting quality. 2) Ship casting within 24 hours after finish trial, and provide waybill in timely. 3) After samples approval and shippment informed. According to Mold checking list to ensure all requiremets completly and correctly to ship to our clients. 7, After-Service CAMEL have 3 cooperated after-service location at Europe (Austria ,Slovenia), and 5 cooperated after-service location at Unit States (MI,IN,TX). CAMEL be responsible for the mold production smoothy during mold life. contact

Mold Making refers to the processing of forming and blanking tools, in addition to shearing and die-cutting dies. Die casting mold is a tool for die casting metal parts, a tool for completing the die casting process on a dedicated die casting die forging machine. Mold Making & Die Casting Mold Manufacturing Process Mold Making Mold Making refers to the processing of forming and blanking tools, in addition to shearing and die-cutting dies. Normally, the mold consists of two parts: the cavity die and the core die. A steel plate is placed between the upper and lower dies, and the material is molded under the action of a press. When the press is opened, the workpiece defined by the shape of the die is obtained, or the corresponding scrap is removed. Workpieces were as small as an electronic connector or as large as an automotive dashboard can be formed with a die. A progressive die is a set of dies that automatically moves the machined workpiece from one station to another and gets the molded part at the last station. Die processing process includes: cutting die , blanking die, compound die, extrusion die, four-slide die, progressive die, stamping die, die cutting die, etc. Die Casting Mold Manufacturing Process Die-casting materials, die-casting machines , and molds are the three significant elements of die-casting production, and none of them are indispensable. The so-called die-casting process is the organic and comprehensive application of these three elements to enable stable, rhythmic, and efficient production of qualified castings with good appearance, internal quality, and dimensions that meet the requirements of the drawing or agreement, or even high-quality castings. The Latest Technology Die Casting Mold Die casting mold is a tool for die casting metal parts, a tool for completing the die casting process on a dedicated die casting die forging machine. The basic process of CAMEL die-casting is first low-speed or high-speed casting of molten metal into the mold's cavity. Next, the mold has a movable cavity surface, which is pressurized forged with the cooling process of the molten metal, which eliminates the shrinkage of the blank. Shrinkage defects also make the internal structure of the blank reach broken grains in the forged state. As a result, the comprehensive mechanical properties of the blank have been significantly improved. A variety of new die-casting mold surface treatment technologies continue to emerge, but generally can be divided into the following three categories: (1) Improved technology of traditional heat treatment process; (2) Surface modification technology, including surface thermal expansion treatment, surface phase change strengthening, electric spark strengthening technology, etc.; (3) Coating technology, including electroless plating, etc. Die-casting molds are a large category of molds. It is still difficult to meet the ever-increasing performance requirements by relying only on the application of new mold materials . Various surface treatment technologies must be applied to the surface treatment of die-casting molds in order to achieve Requirements for high efficiency, high precision, and long life. Among various molds, the working conditions of die-casting molds are relatively harsh. Die casting is to fill the mold cavity with molten metal under high pressure and high speed and die-casting. It repeatedly contacts the hot metal during the working process. Therefore, the die-casting mold is required to have high thermal fatigue, thermal conductivity, wear resistance, and corrosion resistance. , Impact toughness, red hardness, good mold release, etc. Therefore, the surface treatment technology requirements for die-casting molds are relatively high. 2. Surface modification technology Surface thermal diffusion technology This type includes carburizing, nitriding, boronizing, carbonitriding, sulfur carbonitriding, and so on. Carburizing and carbonitriding The carburizing process is used in cold, hot work and surface strengthening of plastic molds, which can improve the life of the mold . For example, the die-casting mold made of 3Cr2W8V steel is first carburized, quenched at 1140～1150℃, and tempered twice at 550℃. As a result, the surface hardness can reach HRC56～61, which increases the die life of die-casting non-ferrous metals and their alloys by 1.8～3.0 times. When carburizing, the main process methods include solid powder carburizing, gas carburizing, vacuum carburizing, ion carburizing, and carbonitriding formed by adding nitrogen to the carburizing atmosphere. Among them, vacuum carburizing and ion carburizing are technologies that have been developed in the past 20 years. This technology has the characteristics of fast carburizing, uniform carburizing, smooth carbon concentration gradient, and small deformation of the workpiece. It will be used on the surface of the mold, especially the precision mold. Play an increasingly important role in surface treatment. 1. Improved technology of traditional heat treatment process The traditional heat treatment process of die-casting molds is quenching-tempering, and later surface treatment technology has been developed. Due to the variety of materials that can be used as die-casting molds, the same surface treatment technology and process applied to different materials will produce different effects. CAMEL proposes substrate pretreatment technology for mold substrate and surface treatment technology. On the basis of traditional technology, it proposes suitable processing technology for different mold materials to improve mold performance and increase mold life. Another development direction for the improvement of heat treatment technology is to combine traditional heat treatment technology with advanced surface treatment technology to increase the service life of die-casting molds. For example, the chemical heat treatment method carbonitriding, NQN combined with the conventional quenching and tempering process (namely carbonitriding-quenching-carbonitriding composite strengthening, not only obtains higher surface hardness, but also effective hardening layer The depth increases, the hardness gradient distribution of the infiltrated layer is reasonable, the tempering stability and the corrosion resistance are improved, so that while the die-casting mold obtains good core performance, the surface quality and performance are greatly improved. 3. Nitriding and related low-temperature thermal expansion technology Including nitriding, ion nitriding, carbonitriding, oxygen nitriding, sulfur nitriding, and ternary sulfur carbon nitriding, oxygen, nitrogen, and sulfur. These methods have simple processing technology, strong adaptability, low diffusion temperature, generally 480-600°C, and small workpiece deformation. They are especially suitable for surface strengthening of precision molds. The nitride layer has high hardness, good wear resistance, and good impact resistance. The nitriding process is a commonly used process for surface treatment of die-casting molds, but when a thin and brittle white layer appears in the nitriding layer, it cannot resist the effect of alternating thermal stress and is prone to micro-cracks. Crack and reduce thermal fatigue resistance. Therefore, in the nitriding process, the process must be strictly controlled to avoid the formation of brittle layers. Die casting and mold are both different and connected. The birth of the die-casting mold industry is a perfect combination of the two. In other words, die-casting, molds, and die-casting molds are three different industries, and their relationship mainly exists in several aspects. : Die-casting and mold integration, all molds are manufactured by ourselves, and rarely do molds for other companies; professional die-casting mold manufacturing, no die-casting; only die-casting, no mold manufacturing capabilities. CAMEL is a professional die casting mold manufacturer based in China. Our design team with more than 10 years of experience. Please contact us if you have technical difficulties.

At last, steps 7-9 of die casting mold design are on this page. Steps Of Die Casting Die(HPDC Mold) Design III Die casting mold design, We often said as design of die casting dies or die casting die design. Also, Which be called die casting mould design in some countries. The basic die casting die design steps are summarized as follows: 1. Understand and determine the task 2. Design preparation 3. Select the parting surface and die casting system 4. Choose the die casting equipment 5. Determine the appropriate mold structure and draw the mold assembly sketch * 6. Calculation and verification of relevant parameters * 7. Draw the die casting mold pattern * 8. Proofreading and review * 9. Organize and archive design materials At last, The steps 7-9 of die casting mold design on this page. STEPS OF DIE CASTING DIE(HPDC MOLD) DESIGN III 7. Draw the die casting mold pattern * 7 Draw according to the national drawing standards, sometimes combined with factory custom drawing methods that are not specified by the national standards 1) Draw a die-casting drawing Before drawing the mold assembly drawing, the die-casting drawing should be drawn, and it should meet the requirements of the part drawing and process data. The size guaranteed by the next process should be marked with the words "process size" on the drawing. If after die-casting, except for repairing the burrs, no other machining is performed, then the process drawing is exactly the same as the part drawing. It is best to mark the part number, name, material, material shrinkage rate, drawing ratio, etc. under the die-casting drawing. Die casting drawing and material shrinkage are usually drawn on the mold assembly drawing. 2) Draw the mold assembly structure diagram The die-casting mold assembly drawing reflects the assembly relationship between the parts, the shape and size of the main parts and the working principle of die-casting. When drawing the mold assembly drawing, try to use a 1:1 ratio, first start drawing from the cavity, and draw the main view and other views at the same time. Code all the part numbers in order, and fill in the detailed list, marking the technical requirements and instructions for use. The mold assembly drawing should include the following: the structure of the pouring system and the overflow system, the position of the parting surface and the method of parting and taking parts, the shape of the mold and the positioning of all connecting parts, the position of the guide, the overall size of the mold, auxiliary tools ( Picking and unloading tools, calibration tools, etc.), related technical instructions, etc. 3) Draw a part drawing In addition to standard parts, all mold parts that need to be self-made should be separately drawn to meet the requirements of mechanical drawing specifications to meet the requirements of delivery processing; the drawing number of the part drawing should be consistent with the part drawing number in the assembly drawing so that it is easy to check the reason The sequence of disassembling and drawing parts of the mold assembly drawing should be: first inside and then outside, first complicated and then simple, first dismantling and drawing forming parts, and then dismantling and drawing structural parts. Graphics requirements: draw according to scale, allowing zoom in or zoom out. The view selection is reasonable, the projection is correct, and the layout is appropriate. In order to make the processing personnel easy to understand and easy to assemble, the graphics should be as consistent as possible with the assembly drawing, and the graphics should be clear. The dimensioning requirements are unified, centralized, orderly, and complete. The order of dimensioning is: first mark the main part dimensions and draft angle, then mark the matching dimensions, and then mark all the dimensions. Mark the mating dimensions first on the non-main parts drawings, and then mark all the dimensions. Other content, such as part name, mold drawing number, material designation, heat treatment, and hardness requirements, surface treatment, graphic ratio, processing accuracy of free size, technical description, etc. must be filled in correctly. 8. Proofreading and review * 8 Check the view positions of all parts drawings and assembly drawings, whether the projection is correct, and whether the drawing method meets the national standards of drawing. Whether the placement of each mold part on the assembly drawing is appropriate and whether it is clearly indicated; whether the part number, name, and production quantity on the part drawing are omitted, whether it is a standard part or a non-standard part; the material, heat treatment, surface treatment, and surface of the mold part Whether the degree of finishing is marked and clearly described; the working size and matching size figures should be correct and no missing size. Check the processing performance (whether the geometric structure of all parts, drawing methods, dimensions, etc. are conducive to processing); whether the position of the parting surface and the precision of finishing meet the needs, and whether there will be flashing. After opening the mold, can it be ensured that the die-casting parts remain on the side of the mold with the ejector device, whether the demolding method is correct, whether the size, position, and quantity of the push rod (push tube) are appropriate, and whether the push plate will be stuck by the core, Will it scratch the die casting parts. Whether the location, size, and quantity of the flow line of the cooling medium are appropriate; whether the location and size of the pouring system and the overflow system are appropriate. When the die casting part has an undercut, whether the mechanism for removing the undercut is appropriate, such as whether the slider and push rod in the inclined pin core pulling mechanism interfere with each other. 9. Organize and archive design materials 9 From the beginning to the success of mold design processing and inspection, the technical data generated during this period, such as the task book, the part drawing, the technical manual, the mold assembly drawing, the mold part drawing, the base drawing, the mold design manual, and the inspection record sheet, Trial and repair records, etc., are sorted, bound, numbered and archived according to regulations. Link to: STEPS OF DIE CASTING DIE(HPDC MOLD) DESIGN I Link to: STEPS OF DIE CASTING DIE(HPDC MOLD) DESGIN II contact

Design review of trim mold is one of the keys to the cost of making a die casting mold. Both precision and dimensional accuracy are needed to efficiently produce high-quality castings. TRIM MOLD

In order to smoothly process the dies manufacturing, trial mold, and normal use, the technical requirements for manufacturing, assembling, use, and other processes must be indicated on the assembly drawing and part drawing of the Die-casting dies. Technical specifications of die casting dies After the design of the Die-casting dies structure is completed, there are more important and more complex manufacturing, assembly, mold trial, and production application processes. To smoothly process the dies manufacturing, trial mold, and normal use, the technical requirements for manufacturing, assembling, use, and other processes must be indicated on the assembly drawing and part drawing of the Die-casting dies. 1. Technical requirements that should be indicated in the Die-casting dies assembly drawing 2. Technical requirements for the shape and installation position of the Die-casting dies 3. Technical requirements for overall assembly accuracy of Die-casting dies 4. Dimensional tolerance and fit of structural parts of Die-casting dies 5. Geometric tolerances and surface roughness requirements of Die-casting dies structural parts 1. Technical requirements that should be indicated in the Die-casting dies assembly drawing 1 The assembly drawing should indicate the following technical requirements (1) The maximum external dimensions of the dies(length×width×height). To facilitate the review of whether there is interference between the sliding components and the machine components when the dies are working, the size, position, and stroke of the hydraulic core-pulling cylinder, the size and position of the slider core-pulling mechanism, and the position of the slider to the endpoint sketches should be drawn. (2) Choose the Die-casting machine model. To facilitate the review of whether there is interference between the sliding components and the machine components when the dies is working, the size, position, and stroke of the hydraulic core-pulling cylinder, the size and position of the slider core-pulling mechanism and the position of the slider to the end point sketches should be drawn. (3) Choose the inner diameter, specific pressure, or nozzle diameter of the pressure chamber. (4) The minimum mold opening stroke (if the maximum mold opening stroke is limited, it should also be noted). (5) Push out the itinerary. (6) Indicate the cooling system, hydraulic system inlet, and outlet. (7) Pouring system and main dimensions. (8) Action stroke of special motion mechanism. 2. Technical requirements for the shape and installation position of the Die-casting dies 2 The shape and installation position of the Die-casting dies should meet the following technical requirements: (1) The edges of each template should be chamfered 2×45°, and the mounting surface should be smooth and flat, and there should be no protruding screw heads, pins, burrs, and scratches. (2) Mark obvious marks on the non-working surface of the dies, including the following: product code, dies number, manufacturing date, and dies manufacturer's name or code. (3) The movable and fixed molds are respectively provided with screw holes for lifting, and the larger parts (>25kg) should also be provided with lifting screw holes. The effective thread depth of the screw hole is not less than 1.5 times the diameter of the screw hole. (4) The relevant dimensions of the dies installation part should be by the relevant corresponding dimensions of the selected die-casting machine, and the installation and disassembly are convenient. The installation hole diameter and depth of the pressure chamber must be strictly inspected. (5) Except for the guide sleeve hole and the oblique pinhole on the parting surface, all process holes and screw holes in the dies manufacturing process should be blocked and flush with the parting surface. 3. Technical requirements for overall assembly accuracy of Die-casting dies 3 The overall assembly accuracy of the die-casting dies should be guaranteed to meet the following technical requirements (1) The parallelism between the dies parting surface and the installation plane of the movable and fixed dies seat plates is selected according to the provisions of the table below： The specified unit of parallelism between the dies parting surface and the installation plane of the movable and fixed dies base (unit: mm) The maximum linear length of the measured surface ≤160 160~250 250~400 400~630 630~1000 1000~1600 Tolerance value 0.06 0.08 0.1 0.12 0.16 0.2 (2) The verticality of the installation plane of the guidepost, guide sleeve, and fixed mold seat plate should be selected according to the provisions of the table below： The vertical regulation of guide post and guide sleeve to the installation plane of fixed and movable dies seat plate (unit: mm) Effective sliding length of guide post and guide sleeve ≤40 40~63 63~100 100~160 160~250 Tolerance value 0.015 0.02 0.025 0.030 0.040 (3) On the parting surface, the plane of the fixed dies and the movable dies insert should be flush with the fixed mold set plate and the movable dies set plate or slightly higher, but the height should be within the range of 0.05~0.10mm. (4) The push rod and the reset rod should be flush with the parting surface respectively. The pushrod is allowed to protrude from the profile surface, but not more than 0.1mm, and the reset rod is allowed to be lower than the profile surface, but not more than 0.05mm. The pushrod should be able to rotate flexibly in the pushrod fixed rod, but the axial clearance should not be greater than 0.10mm. (5) All movable parts of the dies should be accurate in position, reliable in movement, and free of skew and sluggishness; no movement between relatively fixed parts is allowed. (6) The sliding block is positioned accurately and reliably after the dies are opened. At the end of the core pulling action, the distance between the drawn core end face and the end face of the corresponding shape or hole on the casting shall not be less than 2mm. The sliding mechanism should be flexible in guiding and sliding, stable in movement, and proper clearance. After closing the dies, the sliding block and the wedge block should be compressed, the contact area is not less than 1/2, and has a certain prestress. (7) The surface roughness Ra of the runner should not be greater than 0.4m, the connecting part should be smoothly connected, the inserting part should be close, and the molding inclination should not be less than 5°. (8) When clamping the dies, the molding surface should fit closely. If there is a gap in some parts, the gap size should not be greater than 0.05mm (except for the exhaust groove). (9) The cooling water channel and temperature control oil channel should be unblocked, there should be no leakage, and the inlet and outlet should be clearly marked. (10) The surface roughness Ra of all forming surfaces is not greater than 0.4m, and all surfaces are not allowed to be damaged or rubbed. Injuries or micro cracks. 4. Dimensional tolerance and fit of structural parts of Die-casting dies 4 Die-casting dies work at high temperatures. Therefore, when selecting the matching tolerances of die-casting dies parts, not only a certain assembly accuracy is required at room temperature, but also the structural dimensions of each part are required to be stable and reliable in operation at working temperature. Especially the parts that are in direct contact with the molten metal are subjected to high pressure, high speed, and thermal alternating stress during the filling process, and the clearance with other parts is prone to change, which affects the normal progress of die casting. The change of the fit-gap is not only related to the temperature but also related to the material, shape, volume, heating degree of the working part of the parts of the dies, and the actual fit properties after processing and assembly. Therefore, the working conditions of die-casting dies parts are very complicated. Generally, the fit clearance should meet the following two requirements: ① For the fixed parts after assembly, there will be no position deviation under the impact of the molten metal. After being heated and expanded, the deformation cannot make the fit too tight, so that the dies inserts and the sleeve plate are locally overloaded seriously, causing the dies to crack. ② For parts that are active during work, after being heated, the nature of the clearance fit should be maintained to ensure normal movement, and during the filling process, the molten metal will not cause the fit clearance. Combined with the actual situation of die-casting dies manufacturing and use, the tolerance and matching accuracy of the main parts of the die-casting dies are now recommended as follows: (1) Tolerance of forming dimensions: The general tolerance level is specified as IT9, H for holes, h for shafts, and GB/T180F for length. Individual special sizes can be selected IT6~T8 level when necessary. (2) Tolerance and fit of matching parts for forming parts: ① The fixed parts of the larger parts that are in contact with the molten metal and are heated, mainly include the sleeve plate and the insert block, the insert block and the core, the sleeve plate and the sprue sleeve, the insert block and the shunt cone, etc. The integral type and accuracy are H7/h6 or H8/h7. The inlaid hole is H8, the largest one in the shaft is h7, and the rest of the spare parts in the shaft is js7, and the cumulative tolerance of the assembly is h7. ②The matching type and accuracy of the movable parts (including push rods, push tubes, formed push plates, sliders, slider grooves, etc.), the hole is H7, the axis is e7 Or d8. ③The height tolerance of inserts, inserts, and fixed cores is F8. ④The tolerance of the base size is taken as js8. (3) Tolerance and coordination of template size: the tolerance of the base size is taken as js8; the core is cylindrical or symmetrical, and the centerline size tolerance of the hole from the base to the fixed core on the template is taken as js8; the core is non-cylindrical Or when it is asymmetrical, the edge dimension tolerance from the base surface to the fixed core on the template is taken as js8; the thickness dimension tolerance of the combined sleeve plate is taken as h10; the depth dimension tolerance of the insert hole of the integral sleeve plate is taken as h10. (4) Dimension tolerance of sliding groove: ①The dimensional tolerance of the sliding block groove to the base surface is taken as f7. ②For the combined sleeve, the dimensional tolerance from the slider groove to the bottom surface of the sleeve is taken as js8. ③For the integral sleeve plate, the dimensional tolerance from the slider groove to the bottom surface of the insert hole is taken as js8. (5) Tolerance and fit of guide post and guide sleeve: For the fixed position of the guide post and guide sleeve, the hole is H7, and the axis is m6, r6, or k6; for the clearance fit of the guide post and guide sleeve, the hole is H7, and the axis is k6 or printed. ; If the hole is H8, the axis is e7. (6) The size between the guide post and guide sleeve and the base surface: the dimensional tolerance from the base surface to the center line of the guide post and guide sleeve is js7; the dimensional tolerance of the distance between the center line of the guide post and guide sleeve is js7, or cooperated processing. (7) The tolerance and fit between the push plate guide post and the push rod fixed plate and the push plate: the hole is H8, and the shaft is f8 or f9. (8) Tolerance of core table, push rod table, and corresponding dimensions: the depth of the hole table is +0.05~+0.10mm, and the height of the pillow block is -0.03~0.05mm. (9) The tolerance level of the unmarked tolerance dimensions of various parts is IT14 level, H for holes, h for shafts, and length (height) and distance dimensions are selected according to js14 accuracy. 5.Geometric tolerances and surface roughness requirements of Die-casting dies structural parts 5 Geometric tolerance is the deviation of the surface shape and position of the part. The deviation range of the geometric tolerance of the forming part of the formed part and the reference part of all other structural parts is generally required to be within the tolerance range of the size, and no additional mark is added on the drawing. The geometric tolerances of other surfaces of the parts of the Die-casting dies are selected according to the table below and marked on the drawing. The table below Selection accuracy grades of geometric tolerances of die casting dies parts: Geometric tolerances of relevant elements Selection accuracy Coaxial between the axis of the fixed part of the guide post and the axis of the guide sliding part Level 5~6 The coaxial of each forming step surface of the circular insert to the mounting surface Level 6 Concentricity between the inner diameter of the guide sleeve and the outer diameter axis Level 6~7 The axis of the fixed hole of the insert in the sleeve is coaxial with the common axis of the holes Level 7~8 on the other sleeves The perpendicularity between the axis of the guide post or the guide sleeve Level 5~6 mounting hole and the parting surface of the sleeve plate The two adjacent sides of the set of plates are the perpendicularity of the process reference plane Level 5~6 The perpendicularity of the two adjacent sides of the insert and the other side of the parting face Level 6~7 The perpendicularity between the surface of the insert hole in the sleeve and the parting surface Level 7~8 The perpendicularity of the axis of the core fixing hole on the insert to the parting surface Level 7~8 Parallelism of the two planes of the plate Level 5 The parallelism of the opposite sides of the insert and the bottom of the parting face Level 5 The axis of the insert hole in the sleeve and the end face of the parting surface are circularly run out Level 6~7 The radial runout of the axis of the circular insert to its end face Level 6~7 Parallelism of the parting surface of the insert, the sealing surface of the slider, the combined surface ≤0.05mm of the combined block, etc. The surface roughness of die-casting dies parts not only affects the surface quality of the die-casting part, but also affects the use, wear, and life of the dies. It should be selected according to the work needs of the part. The appropriate surface roughness is shown in the table below. Surface roughness of Die-casting dies: Surface position Surface roughness Ra/pm The forming surface of inserts, cores and other forming parts and the surface of the gating system 0.1~0.2 The mating surface of inserts, cores, sprue sleeves, shunt cones, and other parts ≤0.4 The mating surfaces of guide posts, guide sleeves, push rods, diagonal pins and other parts ≤0.8 Mold parting surface, joint surface between each template ≤0.8 Support surface of core, push rod, sprue bushing, shunt cone and other parts ≤1.6 Other non-working surfaces ≤6.3 contact

This article will explain the working principle and correct operation method of cold-chamber die casting machine How does cold-chamber die casting machine work During operation, the pressure chamber is placed vertically, and the upper punch is above the pressure chamber, and the lower punch is located at the position where the nozzle orifice is blocked, to prevent molten metal from pouring into the pressure chamber and flowing into the nozzle hole by itself. The opening and closing movements of the mold move horizontally. After the mold is opened, the die casting remains in the movable mold. The working steps of the cold chamber die casting machine are as follows: Close the mold. Pour molten metal into the press chamber manually or by other means. The upper punch moves down at a lower injection speed and enters the pressure chamber until it just touches the molten metal surface. When the upper punch is turned to a higher injection speed and pressed down, the lower punch and the upper punch will move down synchronously while maintaining the relative distance between the upper punch and the molten metal. When the lower punch moves down to let out the nozzle orifice, it just descends to the nozzle part and is supported, therefore, the upper and lower punches squeeze the molten metal at high speed to the nozzle hole (part of the sprue) injection. The molten metal is filled into the mold cavity from the inner gate through the sprue composed of the nozzle, the sprue sleeve, the tapered hole of the fixed mold, and the diverter. After the filling is completed, the upper punch can still maintain a certain pressure until the molten metal in the cavity is completely solidified into the die casting 1, and the molten metal in the runner and the pressure chamber solidifies into the direct gate and the remaining material respectively cake. The upper punch lifts and resets; at the same time, the lower punch moves upwards to cut away the remaining cake that is still connected to the straight gate. The lower punch continues to rise, lift the remaining cake out of the top surface of the pressure chamber, and then take it away manually or by other means. Move the lower punch down and reset to block the nozzle orifice. Open the mold, the die-casting part and the straight gate remain on the movable mold together, and then eject and take out the die-casting part; once the remaining material cake is cut away, the mold opening action can be executed immediately, or it can be executed at an appropriate time, Has nothing to do with the movement of the lower punch to complete the lifting and resetting.

CAMEL DIE Team(Photo & Details) SHENZHEN CAMEL DIE LIMITED MANAGEMENT TEAM Chief Executive Officer Simon Rain is one of CAMEL's founders, has 20 years of experience in the mold industry, specializing in mold designing, project management, and factory management. Name: Simon Rain Email: simon@cameldie.com Phone: +86 18923766315 Managing Director One of the founders of CAMEL DIE has 13 years of marketing development, customer service, and company management experience Welcome to contact with me about any of strategic cooperation. Or any complaints about the quality and service of our product. Name: Leo S.Tian Email: leo@cameldie.com Phone: +86 18948310091 Chief Financial Officer Participate in formulating the company's medium and long-term development strategy and annual work plan, 10 years of finance experience; It is my pleasure to join CAMEL in 2019. Name: Copper Email: sales@cameldie.com Phone: +86-755-83440917 Project Manager Ten years ago, I joined CAMEL as a mold designer, and now I am a project manager after managing many different famous projects from North America and West Europe. My next goal is to have a project management system be more intelligent and effective continuously, reduce the error rate and speed up manufacturing. Name: Hedy Email: sales@cameldie.com Phone: +86-755-83440917 Engineer Manager In August of 2016, I joined CAMEL Die Limited as the design leader for die-casting molds, mainly responsible for the die casting mold quotations, project development, mold design, personnel management, after-sales service, corporate design standard drafting, document management, etc. Name: Mankiw. Xu Email: sales@cameldie.com Phone: +86-755-83440917 Overseas Manager Originally from Canada, having travelled extensively and gaiend invaluable experience in business development and sales. In the die casting mold indsutry for 10 years, working with our HQ in China. Based out of Nashville, TN for convenient travel and communcation with our current and prospective customers. Name: Chris Furlong Email: sales@cameldie.com Phone: +1 615 968 3002

We will introduce each step in detail. It was divided into three web pages to share and now introduces steps 1-3 of die casting mold design on this page. Steps Of Die Casting Die(HPDC Mold) Design Die casting mold design, We often said as the design of die casting dies or die casting die design. Also, Which be called die casting mould design in some countries. The basic steps are summarized as follows: 1. Understand and determine the task 2. Design preparation 3. Select the parting surface and die casting system 4. Choose the die casting equipment 5. Determine the appropriate mold structure and draw the mold assembly sketch * 6. Calculation and verification of relevant parameters * 7. Draw the die casting mold pattern * 8. Proofreading and review * 9. Organize and archive design materials We will introduce each step in detail. It was divided into three web pages to share and now introduces steps 1-3 of die casting mold design on this page. STEPS OF DIE CASTING DIE(HPDC MOLD)DESIGN I 1. Understand and determine the task 1 The task book of die-casting parts is usually given by the part designer, providing a formal part drawing after review and signing, and explaining the grades and performance requirements of the die-casting alloy materials, the use requirements or technical requirements of the die-casting parts, the production quantity and the delivery of the die-casting parts Delivery period, etc. The mold design task book is generally proposed by the die-casting parts technician according to the task book of the die-casting part, and the mold designer uses the die-casting part-task book and the mold design task book as the basis to design the mold. 2. Design preparation 2 1) Collect relevant information Collect and sort relevant parts design, die-casting process, die-casting equipment, mechanical processing, and special processing materials for use in mold design. Understand the melting of die-casting raw materials and die-casting process parameters. Digest the process data, analyze whether the die casting method, equipment model, material specification, mold structure type, and other requirements proposed in the process task book are appropriate, whether the die casting equipment of the die casting production unit, the processing capacity and equipment conditions of the die processing unit can be implemented. Die-casting materials should meet the strength requirements of die-casting parts and have good fluidity, uniformity, isotropy, and shrinkage. According to the purpose of die-casting parts, die-casting materials should meet the requirements of electroplating metal conditions, decorative properties, necessary mechanical properties, or weldability. 2) Structural analysis of die castings Digest the drawings of die-casting parts, understand the purpose of the parts, and analyze the technical requirements of die-casting parts such as manufacturability and dimensional accuracy. For example, what are the requirements for die-casting parts in terms of appearance and performance, whether the geometric structure of die-casting parts, slope inserts, etc. are reasonable, the allowable degree of die-casting defects such as flow marks, shrinkage holes, and porosity, whether there is a coating, Electroplating, machining, etc? Select the dimension with the highest dimensional accuracy of die-casting parts for analysis, and see if the estimated die-casting tolerance is lower than that of die-casting parts, and whether die-casting parts can be die-casted. Specifically including (1) Under the condition of satisfying the structural strength of die castings, a thin-walled structure should be adopted. This not only reduces the weight of die casting but also reduces the thermal load of the mold. The wall thickness of die castings should be uniform, avoid hot spots, reduce local heat concentration, and reduce thermal fatigue of mold materials. (2) All corners of die-casting parts should have appropriate casting fillets to avoid the formation of edges and corners in the corresponding parts of the mold, resulting in cracks and corners. (3) Narrow and deep cavities should be avoided as far as possible on die castings, so as not to cause sharp splits in the corresponding parts of the mold, which will deteriorate the heat sink and cause fractures. When the die castings have smaller size round holes, they can only be on the surface of the casting. Press the punching hole position of the sample, and then post-process the die-casting part. 3. Select the parting surface and die casting system 3 According to the basic principles of selecting the parting surface, the position of the parting surface is reasonably selected, and the number and distribution of the cavity are determined according to the structural characteristics of the die-casting part, and the form of the gating system is selected reasonably so that the die-casting part has the best die-casting forming conditions and the longest The mold life and the best mold machining performance. Link to: STEPS OF DIE CASTING DIE(HPDC MOLD)DESIGN II Link to: STEPS OF DIE CASTING DIE(HPDC MOLD)DESIGN III contact