Depending on the application field, the physical and chemical properties of tungsten-copper (W-Cu) alloys, such as shape, raw material ratio, color, and density, vary. Shapes can include cubes, rectangular prisms, cylinders, spheres, tubes, and fine wires. However, under the same raw material ratio and production process conditions, W-Cu alloys of different shapes exhibit similar physical and chemical properties. The following introduces the basic information on tungsten-copper alloy cubes.

Tungsten cubes can be produced not only from tungsten-copper (W-Cu) alloy powder but also from tungsten nickel iron (W-Ni-Fe) alloy powder. Although both W-Cu alloy powder and W-Ni-Fe alloy powder are types of high-density tungsten-based alloy powders, the production process parameters and physical-chemical properties of the resulting cubes differ due to the different binders. Since the basic information on W-Cu alloy cubes has already been introduced, the following presents the basic information on tungsten nickel iron alloy cubes.

As one of the most common products among high-density tungsten-based alloys, tungsten alloy blocks come in shapes such as cubes, rectangular prisms, and hexagons. Although their shapes differ, their physical and chemical properties and applications are basically similar.

Similar to tungsten-copper alloy powder and tungsten nickel iron alloy powder, tungsten-silver (W-Ag) alloy powder can also be used to manufacture tungsten cubes popular among cryptocurrency enthusiasts. In terms of physical and chemical properties, the raw materials used for tungsten cubes are all tungsten-based alloy powders, thus exhibiting characteristics of metallic tungsten, such as high density, high melting point, and good wear resistance. However, due to the different binders used in tungsten-copper, tungsten nickel iron, and tungsten-silver alloy powders, the physical and chemical properties of the prepared cubes still vary.

As a typical representative of tungsten-based alloys, tungsten nickel copper alloy is widely used in aerospace, aviation, mechanical equipment, and other fields due to its excellent thermal, mechanical, electrical, and chemical properties. The following introduces the basic information of this alloy.

In addition to tungsten-copper and tungsten-silver alloys, two-phase tungsten-based alloys also include tungsten molybdenum (W-Mo) alloy. Depending on the design shape, W-Mo alloys can be classified into rectangular prisms, cubes, hexagons, cylinders, and spheres. Under identical raw material ratios, production processes, and parameters, they exhibit completely the same physical and chemical properties, but differ in applications.

In the consumer electronics field, tungsten alloy counterweights play a significant role in enhancing product performance, optimizing user experience, and meeting green design requirements due to their high density, high strength, and excellent corrosion resistance. Consumer electronic products such as smartphones, smartwatches, earphones, and game controllers have high demands for weight distribution, space utilization, and electromagnetic compatibility, making tungsten alloy counterweights, with their unique physical properties, an ideal choice for compact designs and premium features.

In the industrial equipment field, tungsten alloy counterweights, due to their high density, high strength, excellent corrosion resistance, and wear resistance, serve as key components in dynamic balance systems for CNC machine tools, industrial robots, and other heavy equipment. Tungsten alloy counterweights optimize weight distribution, effectively reducing vibration and mechanical stress, improving machining accuracy, equipment stability, and service life.

Precision instruments require high accuracy, stability, and durability in counterweights, and tungsten alloy counterweights, with their high density and small volume, have become the preferred material in this field.

In the medical equipment field, tungsten alloy counterweights play a critical role in radiotherapy devices, diagnostic instruments, and high-precision surgical instruments due to their high density, non-toxicity, non-radioactivity, and excellent radiation shielding capabilities.