• Image 01

    Don't be alone!

  • Image 02

    Find your perfect match!

  • Image 03

    Everything is in your hands!

  • Image 04

    Love Your Imperfections!

  • Image 05

    Start dating today!

  • Image 06

    We'll help you to refine your search!

User blogs

Tag search results for: "china mechanical parts"

A large machine is assembled from many sophisticated parts. Without these parts, the machine is incomplete. So everyone knows how the precise parts are processed?
China Mechanical Parts processing methods mainly include: car, clamp, milling, planing, inserting, grinding, drilling, boring, punching, sawing and other methods.
Wire cutting, casting, forging, electrocorrosion, powder processing, electroplating, various heat treatments, and the like can also be included.
Car: There are vertical and sleeping cars; the new equipment has a CNC car, which mainly processes the rotary body;
Milling: There are vertical milling and horizontal milling; the new equipment has CNC milling, also called machining center; the main machining groove and the straight line shape, of course, can also be processed by two-axis or three-axis linkage;
Planing: The main processing contour is straight surface, and the surface roughness processed under normal conditions is not high in milling machine;
Insert: It can be understood as a planer that stands up, which is very suitable for non-complete arc machining;
Grinding: surface grinding, cylindrical grinding, internal hole grinding, tool grinding, etc.; high-precision surface processing, the surface roughness of the machined workpiece is particularly high;
Drilling: processing of holes;
镗: Machining of larger diameter and higher precision holes, processing of larger workpiece shape. There are many processing methods for holes, such as CNC machining and wire cutting.
镗: Mainly through the file or blade to boring the inner hole;
Punching: mainly through punch press forming, can be rounded or shaped holes;
Saw: It is mainly cut by sawing machine and is often used in the cutting process.

Bakelite is an early plastic or resin made from synthetic materials. It was developed in the early 1900's and used to make items such as jewelry, billiard balls, toys and game pieces, radios, flatware sets, and many other products produced from the early to Mid 20th century. In photographic equipment, the most common items produced in Bakelite were cameras, light meters, lens caps and cases, developing tanks, and projectors.
Coronet camera made of Bakelite Parts
The manufacturing process was labor intensive and the material was formed from an elimination reaction of phenol with formaldehyde, usually with a wood flour filler. It is still being produced occasionally for industrial uses, but no longer for consumer merchandise due to the labor and cost involved This makes Bakelite fall into the "retro" or "vintage" material category, and is often classified as a rare and more valuable plastic than modern plastics. Because there are so many different types of plastic, and some are very similar to Bakelite, it is often questionable as to whether an item was truly made of Bakelite or not. When it comes to vintage cameras, being made of Bakelite typically isn't a huge concern as it is with vintage jewelry, but the retro aspect still appeals Some cameras were only made out of Bakelite, and in these cases, there are also a few manual tests you can perform to determine if the plastic is indeed Bakelite.
Lens cap made of Bakelite
Appearance and sound tests: Bakelite is a heavy, denser material than most plastics. It typically feels thicker and has a smooth finish. The finishing methods used to produce Bakelite removed any seams in the material so true Bakelite shouldn't have edges that visibly come The sound of two pieces of Bakelite clanking together typical produces a lower-pitched. The sound of two pieces of Bakelite clanking together typically produces a lower-pitched "clunky" sound. The sound is a little more subjective though, and shouldn't be sole relied upon as a testing method.
Parts are cut out of metal by sawing, shearing or chiseling either by hand or more commonly used with the aid of a specialized machine in a fabrication shop. If a sheet metal part is designed to function with two pieces joined together, the pieces are joined by Welding, the use of adhesives, rivets or threaded fasteners.
The parts of the parts being manufactured, engineers will determine which methods are used to ensure that the part will be as durable as possible. These parts are manufactured with essential precision to make them interchangeable, so that repairs and replacements can easily be made To whatever piece of equipment or structure the new parts are being used for.
Sheet Metal Parts offer the advantage of being both lightweight and durable. They are flexible enough that they can be pressed and bent into shape by hydraulic and brake presses during the manufacturing process, but strong enough that they will not break during use unless an unusually high Level of force is applied to them. Sheet metal parts are utilized in the many common consumer goods such as computers, cars, cabinets and air ventilation systems.
Typically, vendors approach a sheet metal fabrication shop with an explanation of the parts that they need to have manufactured for their product. Engineers from either the vendor of the fabrication company will then design a solution that meets the needs of the project. Are then put into use at the sheet metal fabrication site as a process is put in place to effectively create the parts.
Along the way, quality control processes maintain a high standard so that all parts are being produced with identical specifications and quality that meets or exceeds the level expected by the vendor. These parts are put to use for a variety of important applications, so it is Critical that no corners are cut during the manufacturing process.
We are surrounded by objects, most of which, some way or the other have a polymer associated with them. The ease of moulding polymers into different shapes and their relatively low cost of production has been The main reason for their universal usage. As such, Bakelite is one of the commercial manufactured polymers that we witness in our daily lives.
Bakelite is the commercial name for the polymer obtained by the polymerization of phenol and formaldehyde. These are one of the oldest polymers that were synthesized by man. Phenol is made to react with formaldehyde. The condensation reaction of the two reactants in a controlled acidic or Basic medium results in the formation of ortho and para hydroxymethyl phenols and their derivatives.
When the phenol is taken in excess and the reaction medium is made acidic, the product of the condensation reaction obtained is acidic. Whereas, when the quantity of formaldehyde taken is is acidic. Basic medium, the condensation product is known as resol.
Bakelite is obtained when novolac is allowed to undergo cross-linking in the presence of a cross-linking agent. In general, phenol taken in middle acts as the cross-linking agent. Cross-linked product of phenol and formaldehyde have the following structure.
Cross-linked product of phenol and formaldehyde
Uses of Bakelite
Now coming to the uses of Bakelite, since this element has a low electrical conductivity and high heat resistance it can be used in manufacturing electrical switches and machine parts of electrical systems. It is a thermosetting polymer and Bakelite has high strength meaning it basically retains its Form even after extensive moulding. Phenolic resins are also extensively used as adhesives and binding agents. They are further used for protective purposes as well as in coating industry.
Further, Bakelite has been used for making the handles of variety of utensils. It is one of the most common and important polymers that are used to make different parts of many objects.
Join BYJU’s or download our app to know more about polymers with the most simplified approach of learning.For more information, please click on XingHui Bakelite Parts supplier

Precision metal stamping is a widely-used process in manufacturing, responsible for the fast and cost-efficient production of the precision Metal Stamping Parts needed in many products and industries. In this post, we’ll help you understand:
    What precision metal stamping is
    Its comparative advantages and
    Its real-world applications
Ready to get started? Let’s jump in.
    What is Precision Metal Stamping?
    Advantages of Precision Metal Stamping
    Considerations When Using Precision Metal Stamping Techniques
    What To Look for in a Precision Metal Stamping Partner
    Precision Metal Stamping Capabilities and Industries We Serve
What is Precision Metal Stamping?
Various metal stamping is an industrial process that uses machinery fitted with dies to transform flat sheet metal in either blank or coil form into different custom shapes. Other stamping, these metal presses can also perform a wide range of processes such as punching, tooling, notching , bending, embossing, flanging, coining, and much more.
It can be executed as a single-stage operation—where each stroke of the metal press produces the desired shape on the sheet metal— or in a series of stages.
The improving of the metal parts in various industries—from medical to automotive to aerospace — has pushed precision metal stamping to the forefront of manufacturing today. This is because it offers a high degree of design flexibility for defining and implementing minute features with tight tolerances And unique configurations.
In all, this makes precision metal stamping an ideal solution for the high-volume production of complex products, thanks to Its flexibility, speed and cost-effectiveness.
Advantages of Precision Metal Stamping
Precision stamping comes into its own when handling the production of precise metal parts. Once the equipment and dies are set, the process can run in a highly automated manner. This translates into 2 distinct advantages:
    Cost efficiency in production: Labor costs drop as production levels increase, making precision metal stamping a good choice for high-volume production of complex parts
    Consistent quality and accuracy: Precision metal stamping enables the production of very precise parts to the high degree of accuracy required in many industries today


A sheet metal part starts out as a flat piece of metal with a consistent thickness.
For manufacturing purposes, details like bend radii and relief sizes are usually the same throughout the part. You enter the values ??for these details, and then the software applies them as you design. For example, when you create a flange the bend is added automatically .
It is necessary to convert the folded model to a flat pattern for manufacturing purposes. Then you can switch between the folded view of the model and the flattened view by double-clicking the Folded Model or Flat pattern browser node.
    The mass and volume for Sheet Metal Parts are most accurately obtained from the flat pattern. The moment of inertia must be calculated from the final folded shape.
    You can use top down design methods to create multiple sheets metal bodies in a single part file. The Create Flat Pattern command is not available for multi-body parts. You must use the Make Components or Make Part commands to create derived parts that can be Flattened.
You can add features to the flat pattern for clean-up purposes. These operations are typically performed to support shop-specific manufacturing practices. Features added to the flat pattern using the commands on the Flat Pattern tab do not display when you view the model in The folded state.
Flat patterns rich with manufacturing information can be created and documented on drawings containing tables of holes, punches, and bends. You can export flat patterns to industry standard formats for CNC manufacturing.
When you use sheet metal parts in assembly models (not available in Inventor LT), sheet metal fasteners are available through the Bolted Connection Component Generator, or through Content Center.
Ways to Create Sheet Metal Parts
You can create sheet metal parts in several ways.
    Create a sheet metal part using the sheet metal template. The template uses your settings for material thickness, bend radius, and corner relief. You use sketch commands to create a profile for a base face or an initial contour flange. Then you exit the sketch And create your sheet metal feature, and add any additional sheet metal features required to complete your part.
    Create a regular part with a uniform thickness, and then convert it to a sheet metal part. Specifying a part as sheet metal displays the Sheet Metal tab, and adds sheet metal-specific parameters to the parameters list.
    Conversely, you can convert sheet metal part to a standard part. Doing so closes the sheet metal tab, and restores the standard part modeling commands and environment. Conversion of a sheet metal part to a standard part automatically deletes the sheet metal flat pattern. Time you delete a flat pattern in a sheet metal part, you also delete all flat pattern views in associated drawings.
    Note: When using this technique, ensure that the modeled sheet thickness agrees with the material thickness parameter setting. After converting a part to sheet metal, we recommend that you replace any dimension and parameter values ??that control the sheet metal thickness with the Thickness parameter. For example, in an extruded feature use Thickness as the extrusion value with the Distance extent method. The Thickness parameter updates the part thickness when you change the Sheet Metal Rule, or when you override the Thickness manually in the Sheet Metal Defaults dialog box.
    To create a sheet metal part to fit a specific set of conditions, construct a series of surfaces, stitch them together later, and then thicken them.

When you need auto repair in Cincinnati, OH, you need to find the very best mechanic in town to ensure that you continue to get top performance for your car and improve the longevity of your car. If the work is not done right or if it Is done with second-rate parts, you'll end up bringing your car back a few months later and spending hundreds or even thousands of dollars more to have it repaired again.
Hiring a mechanic who will choose the right parts is very important. When the best parts are used, they will last longer and save you a lot of money on replacement parts and on other car problems. First, you need to know how long important car Parts are supposed to last so you have a frame of reference.
Here’s what you need to know about the average life span of some of the most important parts in your car:
There is no other part in your car that is more important than the engine. Many factors influence its life span, so it's hard to put a concrete number of miles or years on how long it will last. Usually, engines last around 150,000 miles on The low end and up to 350,000 on the high end.
How long your depends lasts depends in large part on how well it is maintained. Your engine needs fresh fluids, good exhaust and clean filters to work well. If any of these things are neglected, your engine will have work harder, and its life Span will be shortened.
The life span of your engine will also depend on how much abuse it takes. If you two heavy loads, regularly drive at top speeds, brake too quickly, rev the engine too much, or accelerate too quickly too often, you will shorten the life Span of your engine.
Finally, how well the engine is made will influence how long it lasts. Generally speaking, engines made of iron are more durable than those made of aluminum. However, iron and steel are also heavier materials than aluminum, which will reduce the fuel efficiency. You should look for a balance of materials that will make the engine durable while also protecting your fuel efficiency. For more information, please click XingHui Automobile Press Parts.
Stamping (also known as pressing) is the process of placing flat sheet metal in either blank or coil form into a stamping press where a tool and die surface forms the metal into a net shape. Stamping includes a variety of sheet-metal forming manufacturing processes , such as punching using a machine press or stamping press, blanking, embossing, bending, flanging, and coining. This could be a single stage operation where every stroke of the press produces the desired form on the Metal Stamping Parts, or could occur through a series of stages. The process is usually carried out on sheet metal, but can also be used on other materials, such as polystyrene.
Press Equipment
    80 Ton Gap Frame Press – 39.4 x 23.6 x 10.65-13.8 – 5.12 Stroke
    200 Ton Gap Frame Press – 95.2 x 33.4 x 14.9-19.6 – 9.84 Stroke
    200 Ton Straight Side Press – 95.2 x 33.4 x 14.8-19.6 – 9.84 Stroke
    300 Ton Straight Side Press – 120 x 50 x 24.0-36.0 – 16.0 Stroke
    400 Ton Straight Side Press – 108 x 60 x 36.0-12.0 – 17.0 Stroke
    Bending – the material is deformed or bent along a straight line.
    Flanging – the material is bent along a curved line.
    Embossing – the material is stretched into a shallow depression. Used primarily for adding decorative patterns.
    Blanking – a piece is cut out of a sheet of the material, usually to make a blank for further processing.
    Coining – a pattern is compressed or squeezed into the material. Traditionally used to make coins.
    Drawing – the surface area of ??a blank is stretched into an alternate shape via controlled material flow.
    Stretching – the surface area of ??a blank is increased by tension, with no inward movement of the blank edge. Often used to make smooth auto body parts.
    Ironing – the material is squeezed and reduced in thickness along a vertical wall. Used for beverage cans and ammunition cartridge cases.
    Reducing/Necking – used to gradually reduce the diameter of the open end of a vessel or tube.
    Curling – deforming material into a tubular profile. Door hinges are a common example.
    Hemming – folding an edge over onto itself to add thickness. The edges of automobile doors are usually hemmed.

Uncoupled and Coupled Analyses to Predict Crack Initiation in Structural Components
The China Mechanical Parts of a crack initiation prediction method includes four basic steps:
(i) determination of the constitutive equations, in particular for describing the cyclic inelastic behavior;
(ii)calculation of the stresses and strains in the structure from the applied loadings, temperatures, and load evolutions (monotonic or cyclic);
(iii) determination of the damage rules and initiation criteria; and
(iv)calculation of the damage growth and time to crack initiation from the stresses calculated in (ii).
To these initiation predictions, we could add, as a last step, the crack propagation analysis and fracture prediction, using classical fracture mechanics.
In the conventional approach, which is the one used for most practical applications, uncoupling between the mechanical behavior and damage is assumed when calculating the stresses and strains in the part (step), this amounts to assuming that the calculated stress states without Transforming (during the stabilized cycle, for instance) continue to prevail up to the crack initiation. This neglects the additional redistributions induced by coupling with damage and the prediction is conservative, as was shown for the comparisons made in the case of creep. Are reasonable, at least in the fatigue/creep life context, which generally justifies this uncoupled approach.
Schematics of uncoupled structural analysis, damage processes is calculated in a local post-treatment.
The modern approach, so far used for structures of a reasonable size, consists of forming coupling into account when calculating the structure behavior. Steps (ii) and (iv) are combined in a single computation, obviously much more costly since it requires calculating the The whole life of the part. In the case of low-cycle fatigue, accounting simultaneous for the stress redistributions caused by cyclic plasticity and by damage requires calculating all the consecutive cycles, which is currently unfeasible, even on the largest computers. Methods and algorithms which can facilitate this type of analysis and could lead to real industrial applications in the near future have been developed (Savalle and Culié, 1978; Lesne and Savalle, 1989).
Such coupled computations for structural analyses are now well used in two different practical engineering contexts.
(i) The simulation of fracture and of ductile instability in the framework of local approaches of fracture. This is often done using modified Gurson models, in fact quite similar with the CDM models (Benzerga et al., 1999; Steglich and Brocks, 1998 ; Siegmund and Brocks, 2000);
(ii) The simulation of metal-forming processes (Zhu and Cescotto, 1995; Gelin, 1990; Saanouni and Hammi, 2000), with the objective of elimination the risk of damage, optimizing the internal state of the obtained product, or in contrast Favoring the local development of damage in some processes like shaving, blanking, or orthogonal cutting.

Custom metal stampings
Stamped Metal Parts
Metal Stamping Parts
Sheet metal punching and die stamping are two processes used to create parts from large sheets of metal. Both processes are performed on cold metal sheets but selecting a process depends on your application and product requirements. Some of the industries that commonly utilized sheet metal punching and Die stamping include:
    Power storage
    And several others
Metal Stamping Outsourcing Services for Any Industry
 Our offshore manufacturing contractors produce high quality, high precision metal stampings that match our customers’ exact design specifications, no matter how simple or complex.
We can deliver die stamping and sheet metal punching in a wide range of materials, including:
    Pre-galvanized steel
    Stainless Steel
Standard sheet metal and thicker materials are available as well, depending on your design requirements.
Benefits of Using Metal Stamping Outsourcing Services
There are several benefits to utilizing metal stamping outsourcing services for your sheet metal punching operations. Perhaps the most important is cost savings resulting from lower labor and material costs. Metal stamping outsourcing services help you find skilled laborers at significant lower cost than domestic labor.
Sheet metal punching outsourcing also provides access to more technology and a larger supply of specialized manufacturing facilities. This allows you to expand your sheet metal punching or die stamping capabilities without having to invest in the machinery. Together, these benefits help deliver the flexibility you need While still providing high quality products and services at a significantly lower cost.
Pages: 1 2 »

Special offer



Welcome to our new site! Feel free to participate in our community!