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CT Scan & General Radiology :-
C-10, Green Park Extension,
New Delhi-110016
Tel : +91-11-42199992 (30 Lines),
Fax : +91-11-42199993

MRI @ 3 Tesla & 1.5 Tesla :-
H-10, Green Park Extension,
New Delhi-110016
Tel : +91-11-42199991 (30 Lines),
Fax : +91-11-42199994
Email: focusimaging@gmail.com

our services
1. Nation's first whole body signa exite twin speed 3 Tesla MRI system with HDXT platform at H-10 Green Park Extn. New Delhi - 110016

2. 16 Slice/ Second multislice CT Scan with cardiac Imaging.

3. 4D Ultra Sound / Color Dopler / Eco Cardiography.

4. Nation's first true digital X Ray plateform - Agfa DXS with FDA Approved digital Mammography.

5. AERB Accradition for radiology safe practice.

6. Facilities for online images and Reports.

7. ISO - 9001:200 Certified Diagnostic Facility/
Focus Family
Functional Imaging & Nuclear Medicine Division
brain
Brain tumor study and comparison of
nuclear medicine and MR.

Upper row: fused image of nuclear
medicine acquisition and MR acquisition
Middle row: MR study yields excellent
anatomic detail (spatial resolution)
Bottom row: nuclear medicine (SPECT)
images yield excellent functional information.
What is Nuclear Medicine?
Nuclear Medicine is a medical specialty that uses safe, painless and cost-effective techniques both to image the body and treat disease. Nuclear Imaging is a unique concept because it documents both organic function and morphology. Gamma ray emitting radiotracer is injected intravenously and non-invasive imaging is performed with Dual Head Gamma Camera (GE Millennium VG). Nuclear medicine imaging not only shows the structural anatomy of an organ or body part, but the function of the organ as well. This functional information can show if the organ is working properly. This is due to the fact that the radionuclides (low-level radioactive chemicals used in nuclear medicine studies) are absorbed by or taken up at varying rates (or in different concentrations) by different tissue types. For instance, the thyroid gland takes up more radioactive iodine than other parts of the body. The amount of radiation that is taken up and then emitted by a specific body part is linked to the metabolic activity (cellular function) of the organ or tissue. For example, cells which are dividing rapidly (like cancer tissue cells) may be seen as "hot spots" of metabolic activity on a nuclear medicine image, since they absorb more of the radionuclide.
 
Why Nuclear Scan?
DHTML Web Menu by OpenCube When we already have X-Ray, Ultrasound, CT & MRI, why do we need this, the answer lies beneath: It provides unique functional information from cellular and molecular levels. which is not possible with other modalities. It is an extremely sensitive technique. It provides dynamic and quantitative information. It enables objective and prognostic assessment of disease.
 
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brain

brain

When do we use Nuclear Scan?
Radionuclide procedures are available for almost all organic systems just like the different X-Ray procedures. It is used in evaluation of Heart, Lung, Brain, Bone, Kidneys, Liver etc. Scans are designed to study various aspects like concentrations, excretion, drainage / flow of tracers in various organs or localize / characterize the lesions pathology.

Bone scanning with nuclear medicine, for example, can be an important step in diagnosing and assessing treatment of various kinds of cancer, including breast cancer, because it can reveal if the cancer has spread (metastasized) beyond its primary site and developed secondary cancer growths in the bones. On an x-ray one might see that the bone is not broken, but on a bone scan, physicians can see metabolic changes caused by fine fractures, small tumors, or degenerative diseases such as arthritis.

Heart Disease : Nuclear medicine is also an important component in the diagnosis and treatment of heart disease. For example, cardiac angiography yields excellent images of the beating heart and the blood vessels (coronary arteries) that supply the heart muscle (myocardium) with blood. However, a stress thallium nuclear medicine study provides additional information by showing the function of the myocardium.

In a Stress Thallium study, two data acquisitions are performed during a stress thallium study. First, the patient is vigorously exercised on a treadmill or stationary bicycle to elevate cardiovascular activity and "stress" the heart. This is followed immediately by a nuclear medicine examination. The patient is then given a period of time to rest. When the patient's heart activity has again become normal (or "at rest"), a second nuclear medicine study is completed. The physician then compares the images and function of the heart at rest to the heart under stress. Areas of the heart which may have been previously damaged by myocardial infarction (heart attack) or may have insufficient blood supply due to a blockage of a coronary artery will not show the proper function in the stress image. Another common cardiac application of nuclear medicine is the MUGA scan (electrocardiographic Multiple Gated Acquisition) which allows study of the heart's muscular wall motion and study of the heart's chambers.

Nuclear Medicine Can Image and/or Show the Function a Variety of Organs and Body Parts to Diagnose a Number of Medical Conditions Including:

abdomen (example given, to check for gastrointestinal bleeding) brain (e.g., to look for tumors or aneurysms (blood vessel disease) or evaluate stroke) blood (e.g., to test for various blood cell disorders) breast (e.g., to image breast cancers) hepatobiliary system (e.g., to check gallbladder and bile duct function) heart (e.g., to look for coronary artery disease, myocardial infarction, valve disease or heart attack; to detect heart transplant rejection; check the effectiveness of bypass surgery; to select patients for angioplasty or bypass surgery) kidneys (e.g., to check renal function; to detect renal tumors; to test for renal transplant rejection) liver/spleen (e.g., to check for chirrhosis or metastatic cancer) lung (e.g., to check for pulmonary embolism (blood clot), check for lung transplant rejection or test for smoke inhalation injury in burn patients) lymphatic system (e.g., to detect if cancer has spread to the lymph nodes) skeletal system (e.g., to check for metastatic cancer or to test for hidden bone trauma in sports injuries) stomach (e.g., to check for stomach function and to confirm ulcers or cancer) thyroid and parathyroid (e.g., to check for tumor or abnormal function

SPECT
SPECT (single positron emission computed tomography) is another type of nuclear medicine examination. SPECT uses a gamma camera which can rotate, and computer reconstruction similar to PET. In some cases, PET may be more sensitive than SPECT, but PET scanners are much more costly than SPECT scanners and are often only available in the largest medical centers.

Is it safe?
Nuclear Scan is very safe. There will be no reaction or side effect to the tracer injected. Radiation burden to the patient's body is less than in X-Ray Procedures.

 
Nuclear Medicine & Functional Imaging Division
K-16, South Extension -1, New Delhi - 110049
Tel.: +91-11-24601183 / 84 / 85 / 86
Fax: +91-11-24601187
Email: difi_cd@yahoo.com
 
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