Tissue Equivalent CT Dose Phantoms

Model 007TE

The CIRS Tissue Equivalent CT Dose Phantoms are designed to more accurately simulate the patient’s anatomy, from small infant to large adult patient, rendering more accurate and reliable CT dose data.

The bodies of the phantoms are made from Plastic Water®- LR that faithfully mimics the x-ray linear attenuation and scatter properties of water within 1% in diagnostic energy. There are 8 abdominal, 8 thorax, and 4 head phantoms of different sizes and ages available.

CT dose phantoms include an embedded vertebral bone equivalent rods and external bone rings (heads) that are specifically formulated to mimic the appropriate density for patient size/age. The thorax CT dose phantoms include vertebral bone equivalent rod and lungs. Lung equivalent material mimics inhale lung within 3% by linear attenuation.

All of the phantoms have 5 through-holes with an inside diameter of 1.30 cm to accommodate standard CT dose probes, and 5 tissue equivalent rods to plug the holes when not in use. One hole is at the center and 4 are around the perimeter, 90° apart and 1 cm from center to the outside edge of the phantom.

  • Usable on all CT scanners
  • Size-specific options, from infant to large adult
  • Simulates patient head, thorax and abdominal regions
  • Made from tissue equivalent epoxy
  • 1.30 cm inside hole diameter sized for standard CT Dose probes

NOTE: This product or an optional accessory of this product requires a CIRS dosimetry cavity code before an order can be placed. Please refer to the Dosimetry Cavity Codes document to identify the CIRS code for the probe you intend to use with this product.

Data Sheet

Tissue-Equivalent CT Dose Phantoms: Data Sheet

Dosimetry Cavity Codes

Cavity Codes for Dosimetry Devices

Size-Specific Dose Estimates (SSDE) in Pediatric and Adult Body CT Examinations. Report of AAPM Task Group 204. American Association of Physicists in Medicine. 2011.  View
Wang J, Christner JA, Duan X, Leng S, Yu L, Mccollough CH. Attenuation-based estimation of patient size for the purpose of size specific dose estimation in CT. Part II. Implementation on abdomen and thorax phantoms using cross sectional CT images and scanned projection radiograph images. Med Phys. 2012;39(11):6772-8.  View
Matsubara, Kosuke, Kichiro Koshida, Pei-Jan Paul Lin, and Atsushi Fukuda. "Operating Characteristics of Tube-current-modulation Techniques When Scanning Simple-shaped Phantoms." Journal of the Korean Physical Society 67.1 (2015): 82-88.  View
Yu Z, Leng S, Jorgensen SM, et al. Initial results from a prototype whole-body photon-counting computed tomography system. Proc SPIE Int Soc Opt Eng. 2015;9412:94120W.  View
Yu Z, Leng S, Jorgensen SM, et al. Evaluation of conventional imaging performance in a research whole-body CT system with a photon-counting detector array. Phys Med Biol. 2016;61(4):1572-95.  View
Macdougall RD, Kleinman PL, Callahan MJ. Size-based protocol optimization using automatic tube current modulation and automatic kV selection in computed tomography. J Appl Clin Med Phys. 2016;17(1):5756.  View
Page L, Wei W, Kundra V, Rong J. Dose reduction in CT urography and vasculature phantom studies using model-based iterative reconstruction. J Appl Clin Med Phys. 2016;17(6):6184.  View
Zhou, Y., Nute, J., Scott, A. and Lee, C. (2017), Consistent low-contrast detectability for variable patient sizes and corresponding dose in abdominal CT. Med. Phys., 44: 861–872. doi:10.1002/mp.12085
Yifang Zhou et al, “On the relationship of minimum detectable contrast to dose and lesion size in abdominal CT”, 2015 Phys. Med. Biol.60 7671


Model: 007TE Modality: