+86-731-82246688
Contact Us
Please leave your contact information so that we can handle your request. Thank you for your attention.
Your name
Your email
Phone
Your company
Address
requirement type
Message
How to Choose the Right LaserMark Additive: A Practical Decision Tree

LaserMark additives (often searched as laser marking pigments) are laser-responsive functional additives designed to generate durable, high-readability contrast on plastics. This decision tree helps engineers and designers select the appropriate LaserMark grade based on substrate color, absorption behavior, marking mechanism, and application requirements.

2025.12.18
Detail
When Not to Use PB28 Cobalt Blue Pigment: Application Limitations and Trade-Offs
PB28 Cobalt Blue is a high-performance inorganic blue pigment known for its thermal and chemical stability. However, no pigment is universally suitable for all applications. This article explains when PB28 may not be the optimal choice and highlights key limitations, trade-offs, and alternative considerations for pigment selection.
2025.12.17
Detail
Failure Modes of Blue Pigments: Why Organic Blues Fail and How PB28 Performs
In high-temperature plastics, industrial coatings, and ceramic ink applications, blue pigments often fail due to thermal, chemical, or dispersion-related limitations. This article analyzes common failure modes of organic blue pigments and explains why inorganic PB28 Cobalt Blue provides superior stability and long-term performance in demanding processing environments.
2025.12.17
Detail
Process Comparison: Solid-State vs Liquid-Phase Routes for PB28 Cobalt Blue
PB28 Cobalt Blue can be manufactured via different synthesis routes, primarily solid-state and liquid-phase processes. These process choices significantly influence particle size distribution, agglomeration behavior, color consistency, and dispersion performance in plastics, coatings, and ceramic ink applications. This article compares the two routes and explains their implications for high-end and fine-dispersion systems.
2025.12.17
Detail
PB28 Cobalt Blue vs Organic Blue Pigments in High-Temperature and Ceramic Ink Applications
PB28 Cobalt Blue Pigment is a high-performance inorganic blue pigment based on cobalt aluminate spinel structure. It is widely used in high-temperature plastics, industrial coatings, ceramics, glass, and ceramic ink applications requiring thermal and chemical stability.
2025.12.17
Detail
Expandable graphite: why expansion ratio is misleading
Expansion ratio is commonly used to evaluate expandable graphite, but it often fails to predict real-world performance. This article explains why expansion temperature, expansion consistency, particle integrity, and residue structure matter more than a single expansion ratio value in practical applications.
2025.12.16
Detail
When copper chromite black outperforms carbon black
Carbon black is widely used as a black pigment, but it is not always the best choice. This article explains application scenarios where copper chromite black provides superior thermal stability, chemical resistance, and color durability. It clarifies the performance boundaries between conductive carbon blacks and inorganic black pigments.
2025.12.16
Detail
Why laser marking additives fail despite high absorption
Laser marking performance depends on more than optical absorption. This article explains why some laser marking additives fail despite strong absorption at laser wavelengths. It highlights the importance of energy conversion efficiency, thermal response, and compatibility with polymer matrices in laser marking applications.
2025.12.16
Detail
Why high BET conductive additives fail in lead-acid batteries
High BET does not guarantee good battery performanceSpecific surface area (BET) is often used as a proxy for conductivity performance.  However, in lead-acid batteries, conductive additives with ...
2025.12.16
Detail
SWCNT slurry vs powder: processing stability comparison
Why processing form matters for CNT additivesCNT performance is not determined only by nanotube quality, but also by how the material is introduced into the process.  SWCNT powders and SWCNT slur...
2025.12.16
Detail
CNT vs carbon black: percolation threshold explained

What is percolation threshold in conductive additives?

Percolation threshold is the minimum loading at which a conductive additive forms a continuous electronic network in a composite or electrode. Below this threshold, conductivity increases slowly; above it, conductivity rises sharply. For battery electrodes, a lower percolation threshold means higher energy density and lower inactive material content.

CNT vs carbon black: fundamental difference

Carbon black: contact-based conduction

Carbon black relies on particle-to-particle contact to form conductive paths. Its low aspect ratio means a large amount is required to bridge gaps between active materials, leading to higher percolation thresholds and increased inactive mass.

CNT: network-based conduction

Carbon nanotubes form long-range conductive networks due to their high aspect ratio. A small amount of CNT can span large distances within the electrode, dramatically reducing the percolation threshold compared with carbon black.

2025.12.16
Detail
How Titanium Sub-Oxide (Ti₄O₇)often is used in Lead-Acid Batteries
China Association of Automobile Manufacturers (CAAM) data show that in 2015: • New-energy vehicle (NEV) production reached 340,471 units. • NEV sales totaled 331,092 units. • Year-on-year growth was 3.3 times for production and 3.4 times for sales. With the nation’s NEV fleet expanding at this pace, industry insiders are paying increasing attention to the emerging NEV aftermarket.
2022.08.24
Detail