Abstract: The present disclosure relates to the field of imaging phantoms and their use in computed tomography (CT) and radiotherapy (RT). In particular, the present disclosure provides novel ink compositions conferring radiation absorbing properties mimicking biological tissue to imaging phantoms. Thus, these novel ink compositions are particularly useful for creating tissue equivalent imaging phantoms, which allow realistically simulating biological tissue over the whole range of photon energies relevant for applications in CT and RT. Accordingly, the present disclosure also provides novel imaging phantoms exhibiting radiation absorbing properties mimicking real biological tissue. The present disclosure further relates to methods of generating imaging phantoms built up of layers making use of the novel ink compositions disclosed herein.

Abstract: The invention relates to a model for use in an imaging technique based on an interaction of the model with an electromagnetic radiation. The model comprises a plurality of volume elements. The interaction intensities of two neighboring volume elements are distinguishable by an imaging technique. The model comprises first volume elements made of a supporting material, and second volume elements are made of a supporting material and a contrast material and exhibit a higher interaction intensity with the electromagnetic radiation than the first volume elements because of the presence of contrast material. The second volume elements have been generated by a printing method. The invention further relates to a method for fabricating the model by 3D printing.

Abstract: The invention relates to a model for use in an imaging technique based on an interaction of the model with an electromagnetic radiation. The model comprises a plurality of volume elements. The interaction intensities of two neighboring volume elements are distinguishable by an imaging technique. The model comprises first volume elements made of a supporting material, and second volume elements are made of a supporting material and a contrast material and exhibit a higher interaction intensity with the electromagnetic radiation than the first volume elements because of the presence of contrast material. The second volume elements have been generated by a printing method. The invention further relates to a method for fabricating the model by 3D printing.

Abstract: The invention relates to a model for use in an imaging technique based on an interaction of the model with an electromagnetic radiation. The model comprises a plurality of volume elements. The interaction intensities of two neighboring volume elements are distinguishable by an imaging technique. The model comprises first volume elements made of a supporting material, and second volume elements are made of a supporting material and a contrast material and exhibit a higher interaction intensity with the electromagnetic radiation than the first volume elements because of the presence of contrast material. The second volume elements have been generated by a printing method. The invention further relates to a method for fabricating the model by 3D printing.

Abstract: The invention relates to a model for use in an imaging technique based on an interaction of the model with an electromagnetic radiation. The model comprises a plurality of volume elements. The interaction intensities of two neighbouring volume elements are distinguishable by an imaging technique. The model comprises first volume elements made of a supporting material, and second volume elements are made of a supporting material and a contrast material and exhibit a higher interaction intensity with the electromagnetic radiation than the first volume elements because of the presence of contrast material. The second volume elements have been generated by a printing method. The invention further relates to a method for fabricating the model by 3D printing.