λ/5 Spherical Lenses

Description

?/5 Spherical Lenses are precision optical components designed to manipulate light by focusing or diverging it. These lenses are characterized by their spherical surfaces and are typically used to achieve specific optical performance criteria, such as minimizing aberrations and achieving high precision in light manipulation.

Working Principle

Spherical lenses work by bending light rays that pass through them, a process known as refraction. The curvature of the lens surfaces determines how the light is focused. Positive, or convergent, lenses focus light to a point, while negative, or divergent, lenses spread light out. The ?/5 specification indicates a high level of precision in the lens's surface quality, which is crucial for minimizing optical aberrations and achieving accurate light manipulation. This precision makes them particularly useful in applications requiring high optical performance.

Applications

While specific applications for ?/5 Spherical Lenses are not detailed in the provided documents, spherical lenses in general are used in a variety of optical systems. They are commonly found in imaging systems, laser applications, and optical instruments where precise light control is necessary. For example, they might be used in microscopy to focus light onto a specimen or in laser systems to collimate or focus laser beams.

Advantages over other Spherical Lenses

The ?/5 specification indicates a higher precision in surface quality compared to standard spherical lenses. This precision reduces optical aberrations, leading to clearer and more accurate imaging. Such lenses are particularly advantageous in applications where high resolution and minimal distortion are critical, such as in advanced microscopy or high-precision laser systems.

Limitations

One limitation of spherical lenses, including ?/5 Spherical Lenses, is the presence of spherical aberrations. These occur because light rays passing through the edges of the lens focus at different points than those passing through the center, potentially leading to image blurring. Although the ?/5 specification reduces these aberrations, they are not entirely eliminated.

Considerations

When considering ?/5 Spherical Lenses, factors such as initial costs, operating expenses, and maintenance should be evaluated. High-precision lenses like these typically come with higher initial costs due to the precision manufacturing processes involved. However, their durability and accuracy can justify the investment in applications where optical performance is paramount. Maintenance and replacement costs should also be considered, as maintaining the precision of the lens surfaces is crucial for sustained performance.

5 Results
Achromatic Cemented Lens
from ECOPTIK (CHANGCHUN) LTD

Achromatic Lenses are used to minimize or eliminate chromatic aberration. The achromatic design also helps minimize spherical aberrations. Achromatic Lenses are ideal for a range of applications, including fluorescence microscopy, image relay, inspection, or spectroscopy. An Achromatic Lens, which... [See More]

  • Surface Flatness: λ/2; λ/4; λ/5; λ/8; λ/10
  • Focal Length: 50 to 2000
  • Lens Application: Visible
  • Diameter: 6 to 200
Optical Lenses
from Fairfield Crystal Technology, LLC.

OPTICAL COMPONENT MANUFACTURING. Fairfield Crystal provides component manufacturing for your most challenging designs and applications. Combined with our expertise in crystal growth our component fabrication team is able to manufacture highly polished single crystal lenses, prisms, wedges,... [See More]

  • Surface Flatness: λ/2; λ/4; λ/5; λ/8; λ/10; λ/20
  • Materials: Calcium Fluoride; Zinc Selenide
  • Lens Application: Infrared; Visible; Ultraviolet
  • Surface Quality: 10-5 Scratch / Dig; 20-10 Scratch / Dig; 40-20 Scratch / Dig; 60-40 Scratch / Dig; 80-50 Scratch / Dig
Achromatic Cemented Triple Lens / Acromats
from ECOPTIK (CHANGCHUN) LTD

A cemented cylindrical lens can minimize chromatic aberration, so it can be used to focus a single direction of a multi-color light beam. Unlike a spherical lens that produces a point focusing spot, a cylindrical lens can produce a linear focusing spot. Our cylindrical achromatic doublets are... [See More]

  • Surface Flatness: λ/2; λ/4; λ/5; λ/8; λ/10
  • Diameter: 6 to 200
  • Focal Length: 50 to 2000
  • Center Thickness: 2 to 50
Double Concave Lens
from ECOPTIK (CHANGCHUN) LTD

A double concave lens has negative focal length, thereby causing collimated incident light to diverge. Double concave lens has equal radius of curvature on both side of lens. They are generally used to expand light or increase focal length in existing system, such as beam expander and projection... [See More]

  • Surface Flatness: λ/2; λ/4; λ/5; λ/8; λ/10
  • Focal Length: -2000 to -50
  • Lens Form: Concave-Concave
  • Diameter: 2 to 300
Double Convex Lens
from ECOPTIK (CHANGCHUN) LTD

The double convex lens is symmetrical across both its horizontal and vertical axis. Each of the lens' two faces can be thought of as originally being part of a sphere. The fact that a double convex lens is thicker across its middle is an indicator that it will converge rays of light that travel... [See More]

  • Surface Flatness: λ/2; λ/4; λ/5; λ/8; λ/10
  • Focal Length: 50 to 2000
  • Lens Form: Convex-Convex
  • Diameter: 2 to 300