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BP592-15 Bandpass Filter(CWL=592nm,FWHM=15nm)

BP592-15 Bandpass Filter(CWL=592nm,FWHM=15nm)

PN:SO3010335

Regular price $55.00 USD
Regular price Sale price $55.00 USD
Sale Sold out
Shipping calculated at checkout.
Center Wavelength (CWL) // FWHM
Optical Density // Peak Transmission (Tpk)
Dimension

Transmission & OD Data

The transmission curve is typical. Actual data may vary from lot to lot, you can request the raw Transmission and OD data from us.

Copy the link of the product page and send email to info@syronoptics.com to get raw data.

Shipment & Delivery

For stocked products, shipment will usually be made within 5 working days after order.

For customized products, shipment will usually be made within 4-8 weeks after order.

Return & Refund

Stocked Product are eligible to return within 7 days after receiving.

A flat rate of 35$ will be charged for returning.

Payment Notice

Payment could be done online with Credit Card, Apple Pay, Google Pay.

Amount will not be deducted immediately after you authorized the payment. We will share raw data for confirmation by email, only after confirmation the amount will be deducted.

For amount under $200 you can request to make payment within 15 days after received the product. (NET 15)

The procedure will be as below after the order is submitted.

Custom Sizing

Custom sizing is available for dimension under 60x60mm. Without mounting the thickness will generally ranging from 0.5-3mm.

For bigger size, contact info@syronoptics.com for details.

Optical dicing refers to precision cutting processes used to segment optical materials, particularly those with specialized coatings, into smaller functional components while maintaining their structural and optical integrity. In the context of optical coating flats (flat substrates like glass, fused silica, or semiconductors coated with anti-reflective, dielectric, or other optical layers), dicing ensures these coated substrates meet exact dimensional requirements for applications in photonics, lasers, sensors, and semiconductor devices.

Methods

  • Saw Dicing: Diamond-coated blades for clean cuts with minimal chipping.
  • Laser Dicing: Non-contact ablation for delicate or brittle materials, reducing mechanical stress.
  • Plasma Dicing: Dry etching for ultra-fine features, ideal for advanced semiconductor wafers.

Price

Dicing Service will generally cost from $50 to $125 per piece. Depending on the accuracy and size you are requesting.

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Fequently Asked Questions

Commonly Used Optical Threads

Common Type of Optical Threads

Thread Specification

Model

Description

SM05

0.535"-40

For 12.7 mm optical components or connections with SM05-related products

SM1

1.035"-40

For 25.4 mm optical components or connections with SM1-related products

SM30

M30.5×0.5

For 30 mm optical components or connections with SM30-related products

SM1.5

1.535"-40

For 38.1 mm optical components or connections with SM1.5-related products

SM2

2.035"-40

For 50.8 mm optical components or connections with SM2-related products

SM3

3.035"-40

For 76.2 mm optical components or connections with SM3-related products

S-Mount

M12×0.5

Industrial cameras and lenses

C-Mount

1.00"-32

Industrial cameras and lenses

T-Mount

M42×0.75


RMS (0.800"-36)

RMS

Standard thread for most microscopes, such as Olympus and other common brands

M32×0.75


Matches large-format objectives like apochromatic objectives for biology

M26×0.706


Suitable for Mitutoyo (Japan) and Sigma Koki (Japan) large-format objectives

M25×0.75


Suitable for Nikon (Japan) large-format objectives


Additional Notes:

  1. The "SM" thread series is widely used for securing optical components, with a pitch of 40 threads per inch (TPI). For example, SM1 = 1.035"-40, where the thread diameter is 1.035 inches, and the pitch is 40 TPI.
  2. Regarding standards for mounting optical components, a typical setup requires a drilled hole of approximately M10.5 × 0.5, with a thread depth of about 10.1 mm to accommodate a standard 10 mm optical component securely.

Why Thickness of Optical Filter will Vary

Optical Filter Thickness Variability

The thickness of an optical filter is not solely determined by its final optical properties, but can vary based on several factors:

Coating Design

Different designs can achieve similar optical properties with varying thicknesses

Multiple layers of different materials may be used

Layer thicknesses can range from thin to thick (10+ quarter-wave optical thickness)

Substrate Influence

Substrate material affects overall performance

Refractive index of substrate impacts coating requirements

Wavelength Considerations

Shorter wavelengths typically require thinner layers

Physical thickness of quarter-wave optical thickness (QWOT) varies with target wavelength

Performance Requirements

Specific optical properties influence design and thickness

High absorption in certain wavelengths may necessitate thicker coatings

Conslusion 

while optical filters may have the same final result, their thickness can vary significantly depending on the coating design, substrate, and specific application requirements.

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