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In order to increase the cohesion of the company's employees, strengthen their sense of belonging, and promote employees' understanding and communication, so that each employee can truly feel the warmth of the big family of China Science and Technology after stressful work, the company organized employees with the theme of "Thanksgiving for you" Birthday party activities, to celebrate the birthday of employees in November, share happy moments!
As automakers transition to 800V architectures, the TF-EE16-64056 transformer has emerged as a game-changer. Its 64056 turn density and 0.8mm² conductor area enable 98.5% efficiency at 400A loads, crucial for bidirectional onboard chargers.
The TF-EE19-2002-12.5 transformer is catalyzing a consumer electronics revolution. Its 12.5:1 voltage ratio and 200kHz operation enabled Anker to create a 60W GaN charger smaller than a golf ball (42×42×22mm). Test data shows: 92% peak efficiency at 20V/3A output 40°C temperature reduction vs. traditional designs 50% lower audible noise
The TF-PE3023-2.72 transformer and CSPV-LTSH sensor combination is enabling 30% smaller AC/DC power modules. The 2.72W encapsulated transformer operates at 130kHz with 94% efficiency, featuring 3kV isolation for medical-grade PSUs. Paired with the CSPV-LTSH's ±1% DC current measurement accuracy (0-50A range), this solution achieves 0.5% total system error in EV charging stations.
The AT32F403ARCT7 and AT32F403AVG7T metering chips now power over 2 million advanced electricity meters globally. These 32-bit ARM Cortex-M4F-based controllers achieve 0.2% active energy measurement accuracy through integrated 24-bit Σ-Δ ADCs and hardware computation engines.
Debuting on June 17, the DCT105W-B3 120A current transformer redefines DC monitoring with a nanocrystalline ring core and multi-layer shielding. It maintains 0.2% accuracy under 1,000A/m DC interference, solving electromagnetic noise issues in ultra-fast EV chargers. A Guangdong-based charger OEM reported 4ms overcurrent response times (vs. 15ms) and 90% fewer false alarms on 800V platforms.
On May 13, a tech firm released the SE8518 series of four BMS-focused shunt resistors, targeting critical industry challenges: SE8518-10: Micron-level tin plating withstands 2,000-hour salt spray testing. SE8518-02/12: Triple-pin design enables simultaneous voltage, temperature, and current sensing. SE8518-03/13: M3 threaded holes boost installation efficiency by 60%, ideal for battery-swap systems.
The TFEE19-2003-2.3 high-frequency transformer is revolutionizing medical equipment with its unique 12.5:1 turns ratio and 2.3µH leakage inductance. In Shanghai's United Imaging Healthcare MRI prototypes, these components reduced cryocooler power supply sizes by 30% while maintaining 0.02% current regulation accuracy.
September 6, 2022, marked a paradigm shift as three revolutionary high-frequency miniature transformers (TF-EE16-64056, TF-EE19-2002-12.5, TFEE19-2003-2.3) debuted with standardized 800×800mm dimensions. Engineered for 100kHz-2MHz operating ranges, these transformers reduce core losses by 62% compared to conventional models, enabling 95% energy conversion efficiency even at 125°C ambient temperatures.
The SH1618-120-12DT2 and SH615-60-12DT2 magnetic latching relays are setting new benchmarks in energy infrastructure. These bistable relays require zero holding power - a critical feature enabling 15% energy savings in smart grid applications compared to traditional relays. Their 120A/60A switching capacities make them ideal for smart meter installations and renewable energy systems where low standby consumption is mandated by IEC 62053-21 standards.
From May to August, six 800×800mm standardized components (shunt resistors, BMS modules, CTs) triggered a "containerization" shift in electronics manufacturing. A Suzhou smart factory cut SMT line changeovers from 45 to 8 minutes, achieving 92% equipment utilization.
The automotive and aerospace sectors demand relays that combine mechanical reliability with solid-state precision. Hybrid latching relays now integrate magnetic latching mechanisms with solid-state switches, offering the benefits of zero contact wear (from solid-state components) and fail-safe latching (from traditional designs).
As 5G networks and IoT ecosystems expand, latching relays are evolving to meet stringent speed and signal integrity demands. Engineers now leverage micro-electromechanical systems (MEMS) and GaN-based drivers to achieve switching speeds under 1 millisecond—10x faster than traditional relays.