-
الحماية من الإشعاع النووي
-
كاشف الإشعاع النووي
-
تدريع رقائق النحاس
-
أبواب محمية RF
-
نوافذ محمية بالترددات اللاسلكية
-
زجاج رصاص للحماية من الإشعاع
-
مجموعة أدوات غير مغناطيسية
-
غرفة RF محمية
-
فتحات التهوية في الدليل الموجي على شكل قرص العسل
-
شريط نحاسي موصل موصل
-
شبكة الأسلاك النحاسية
-
X راي زجاج الرصاص
-
حشية التدريع EMI
-
نسيج موصل كهربائيا
-
باب الحماية من الإشعاع
-
الحماية من الإشعاع X راي
-
فاراداي كيج MRI
-
صوف الأسلاك النحاسية
-
إضاءة LED للتصوير بالرنين المغناطيسي
-
كرسي متحرك غير مغناطيسي
-
نقالة غير مغناطيسية
-
أنستنفيس قرص العسل النحاسي يبدو لطيفًا جدًا -
ساتيشتتألق أبواب التصوير بالرنين المغناطيسي / التردد الراديوي بالمقابض ، شكرًا لك يا صديقي.
Hot Cell Dose Calibrator for Radionuclide Activity Quality Control
| درجة حرارة التخزين | -40 درجة مئوية إلى 60 درجة مئوية | نطاق الجرعة التراكمية | 0.1 ميكروسيفرت ~ 10 سيفرت |
|---|---|---|---|
| تخزين البيانات | ما يصل إلى 1000 قراءات | درجة حرارة التشغيل | -20 درجة مئوية إلى 50 درجة مئوية |
| وزن | حوالي 9.8 كجم | مقاس | 350*250*245 (مم) |
Hot Cell Dose Calibrator for Radionuclide Activity Quality Control
Product Introduction
The Hot Cell Dose Calibrator for Quality Control is specifically designed to support the comprehensive quality assurance program required by nuclear medicine regulations and accreditation bodies. Every dose calibrator must undergo daily constancy checks, quarterly linearity testing, and annual calibration verification. Traditionally, these tests are performed using external sources that must be handled outside the hot cell, increasing staff exposure and contamination risk. This instrument integrates quality control protocols into its software, guiding the user through each required test, calculating results, and storing records for inspection. The detector remains inside the hot cell for all QC procedures, eliminating the need to move sources.
Application Range
This dose calibrator is designed for nuclear medicine departments that must comply with regulatory requirements for dose calibrator performance testing. Specific quality control applications include daily constancy checks using a long-lived reference source (typically Cs-137 or Co-57), quarterly linearity testing using either the decay method or sleeve method, geometry variation studies comparing different syringe and vial types, background radiation monitoring, and annual calibration verification traceable to national standards. The instrument also supports acceptance testing for new radiopharmaceuticals, measurement reproducibility studies, and inter-instrument comparison protocols for multi-site nuclear medicine networks. In addition to quality control, the calibrator performs routine dose measurement tasks including generator eluate activity verification, patient dose dispensing, and waste activity characterization.
Performance and Benefits
The Hot Cell Dose Calibrator for Quality Control achieves measurement accuracy of ±5% with a reproducibility of ±2% for replicate measurements. The instrument's quality control software module includes step-by-step instructions for each required test, eliminating guesswork and reducing the likelihood of procedural errors. For daily constancy checks, the software prompts the user to place the reference source in the chamber, automatically records the reading, compares it to the expected value, and flags any deviation exceeding acceptable limits (typically ±10%). The software maintains a historical record of constancy check results, displaying trends over time to alert users to gradual performance changes that might indicate calibration drift. For quarterly linearity testing, the software supports both the decay method (measuring a source repeatedly as it decays over multiple half-lives) and the sleeve method (using calibrated attenuators). The instrument automatically calculates linearity deviation, identifies any nonlinear regions, and produces a pass/fail report. For geometry variation studies, the software guides the user through measurements of the same radioactive solution in different syringe or vial types, calculates geometry correction factors, and stores them for use in routine measurements. All quality control records are stored in an internal database with timestamps and user identification, and the USB port allows export to spreadsheets or quality management systems. The printer output produces hardcopy records suitable for regulatory inspection. The instrument includes an alert system that notifies users when QC tests are due, reducing the risk of noncompliance due to missed tests. For nuclear medicine departments, the key benefits are simplified regulatory compliance through automated QC protocols and records, reduced staff exposure because QC tests are performed inside the hot cell without moving sources, improved confidence in patient dose accuracy because QC records demonstrate instrument performance, and time savings compared to manual QC procedures. The instrument's integration of quality control and routine dose measurement functions eliminates the need for a separate QC-only calibrator, reducing equipment costs and workspace requirements. For radiation safety officers, the comprehensive QC records provide defensible documentation for regulatory inspections and accreditation surveys.

