Laptop DELL 14 Plus DB14250 14 inch Intel Core Ultra 9 32 GB 1 TB Intel Arc Windows 11 Pro

The DELL 14 Plus DB14250 is a portable 14" laptop offering a 2.5K (2560 x 1600) display, Intel Core Ultra 9 processor (model 288V), 32 GB LPDDR5x memory and 1 TB SSD storage. It includes Intel Arc graphics and runs Windows 11 Pro. Weighing 1.55 kg and finished in blue, the device is designed to balance mobility and performance for creative work and business tasks.

Advantages

Compact and lightweight at 1.55 kg, the DELL 14 Plus DB14250 delivers a high-resolution 2.5K display for sharper visuals, a high-performance Intel Core Ultra 9 CPU and 32 GB RAM for demanding applications, and a 1 TB SSD for fast storage and quick system responsiveness. Integrated Intel Arc graphics enhance visual processing for content creation and multimedia. Windows 11 Pro provides business-oriented features and security.

Suitable for (tasks / use cases)

• Graphic design and photo editing
• Video playback and light video editing
• Office work, spreadsheets and presentations
• Small business and productivity applications
• Everyday multitasking and web browsing

Key specifications

• Display: 14" (2560 x 1600, 2.5K)
• Processor: Intel Core Ultra 9 (model 288V)
• Memory: 32 GB LPDDR5x
• Storage: 1 TB SSD
• Graphics: Intel Arc integrated graphics
• Operating system: Windows 11 Pro
• Weight: 1.55 kg
• Color: Blue

How to use

Charge the laptop fully before first use and install any required updates through Windows Update. Use the built-in display and Intel Arc graphics for creative applications; ensure graphics drivers are current for best performance. Store large projects on the 1 TB SSD and use cloud or external backups for important files. For business use, configure Windows 11 Pro settings and security policies according to company requirements.

Recommendations

For optimal performance in creative and productivity workflows, keep the system drivers and Windows 11 Pro updated, maintain at least 15–20% free SSD capacity, and use a cooling-friendly surface during extended workloads.