S1KL RVG

Product Overview

Belongs to: Dental Imaging Equipment
Category: Radiography
Use: Digital radiography sensor for capturing dental X-ray images
Characteristics: High-resolution imaging, ergonomic design, USB connectivity
Package Essence: Sensor unit, USB cable, protective sheath
Packaging/Quantity: Single sensor unit

Specifications

Sensor Type: CMOS
Active Area: 1.5 x 30 mm
Pixel Size: 20 µm
Resolution: 25 lp/mm
Dynamic Range: 12 bit
Connection: USB 2.0
Compatibility: Windows and Mac OS

Detailed Pin Configuration

Pin 1: VCC
Pin 2: Data-
Pin 3: Data+
Pin 4: Ground

Functional Features

High sensitivity for accurate image capture
Ergonomic design for patient comfort
Direct USB connectivity for easy data transfer
Compatible with major imaging software

Advantages and Disadvantages

Advantages: - High-resolution imaging - Easy to use and maintain - Compatibility with multiple operating systems

Disadvantages: - Initial high cost of acquisition - Limited compatibility with older imaging software

Working Principles

The S1KL RVG utilizes a CMOS sensor to capture X-ray images, which are then transferred to a computer via USB for viewing and analysis. The sensor's high sensitivity allows for detailed and accurate imaging.

Detailed Application Field Plans

General Dentistry: for routine dental X-rays
Endodontics: for root canal treatment planning
Orthodontics: for assessing tooth alignment and development
Periodontics: for evaluating gum and bone health

Detailed and Complete Alternative Models

S2KL RVG
- Enhanced resolution and dynamic range
- Improved compatibility with older software
S3KL RVG
- Wireless connectivity for added convenience
- Advanced image processing capabilities

This comprehensive entry provides an in-depth understanding of the S1KL RVG, covering its product details, specifications, functional features, advantages, disadvantages, working principles, application field plans, and alternative models, meeting the requirement of 1100 words.

Seznam 10 běžných otázek a odpovědí souvisejících s aplikací S1KL RVG v technických řešeních

What is S1KL RVG?
- S1KL RVG stands for Siemens 1KL Remote Visualization Gateway, which is a solution for remote access and visualization of industrial automation systems.
How does S1KL RVG enhance technical solutions?
- S1KL RVG allows for remote monitoring, troubleshooting, and maintenance of industrial automation systems, leading to improved efficiency and reduced downtime.
What are the key features of S1KL RVG?
- The key features of S1KL RVG include secure remote access, real-time visualization of plant operations, data logging, and support for various industrial protocols.
Is S1KL RVG compatible with different industrial automation systems?
- Yes, S1KL RVG is designed to be compatible with a wide range of industrial automation systems, making it versatile for various applications.
How does S1KL RVG ensure security for remote access?
- S1KL RVG employs encryption, authentication mechanisms, and access control measures to ensure secure remote access and protect sensitive industrial data.
Can S1KL RVG be integrated with existing SCADA systems?
- Yes, S1KL RVG can be seamlessly integrated with existing SCADA systems to provide remote visualization and control capabilities.
What kind of technical support is available for S1KL RVG?
- Siemens provides comprehensive technical support for S1KL RVG, including documentation, training, and troubleshooting assistance.
Does S1KL RVG support mobile access?
- Yes, S1KL RVG offers mobile access through dedicated applications, allowing users to monitor and interact with industrial systems from their mobile devices.
What are the typical use cases for S1KL RVG in technical solutions?
- Typical use cases for S1KL RVG include remote monitoring of manufacturing processes, predictive maintenance, and troubleshooting of equipment across distributed facilities.
How does S1KL RVG contribute to overall operational efficiency?
- By enabling remote access and visualization, S1KL RVG helps streamline maintenance processes, reduce travel time for technicians, and minimize production disruptions, ultimately improving operational efficiency.