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Canon inc 3d landmark scan

Traditional and <t>3D</t> <t>Landmark</t> scout images and scan start/end positions for a chest CT of a 54-year old female. (a) Traditional AP and lateral scout images and start and end scan positions. Lines A and D, and corresponding axial images represent the actual start and end positions of the CT scan planned using traditional scout images where the radiographer estimates the organ locations. Lines B and C and corresponding axial images represent the proper start and end positions for the chest CT to start above the lung apex and go through both adrenal glands. (b) Axial ultra-low dose CT images generated by 3D Landmark scouting and corresponding coronal and lateral projections from the same patient. E and F represent the appropriate start and end positions of the CT planned using the axial 3D Landmark images resulting in a decreased scan length of 34 mm compared to prior imaging (panel a) planned using traditional scout imaging (325 vs 291 mm, respectively). Correspondingly, the radiation dose of the chest CT scan planned by 3D landmark was reduced by 12 % compared to her prior scan planned with traditional scout imaging (249.8 mGy·cm vs 283.7 mGy·cm), representing a 0.47 mSv effective dose savings. Scout image radiation dose itself was reduced by 48 % utilizing 3D Landmark (16.67 vs. 8.67 mGy·cm).

3d Landmark Scan, supplied by Canon inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/result/3d landmark scan/product/Canon inc
Average 90 stars, based on 1 article reviews

3d landmark scan - by Bioz Stars, 2026-06

90/100 stars

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1) Product Images from "Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure"

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

Journal: European Journal of Radiology Open

doi: 10.1016/j.ejro.2024.100578

Traditional and 3D Landmark scout images and scan start/end positions for a chest CT of a 54-year old female. (a) Traditional AP and lateral scout images and start and end scan positions. Lines A and D, and corresponding axial images represent the actual start and end positions of the CT scan planned using traditional scout images where the radiographer estimates the organ locations. Lines B and C and corresponding axial images represent the proper start and end positions for the chest CT to start above the lung apex and go through both adrenal glands. (b) Axial ultra-low dose CT images generated by 3D Landmark scouting and corresponding coronal and lateral projections from the same patient. E and F represent the appropriate start and end positions of the CT planned using the axial 3D Landmark images resulting in a decreased scan length of 34 mm compared to prior imaging (panel a) planned using traditional scout imaging (325 vs 291 mm, respectively). Correspondingly, the radiation dose of the chest CT scan planned by 3D landmark was reduced by 12 % compared to her prior scan planned with traditional scout imaging (249.8 mGy·cm vs 283.7 mGy·cm), representing a 0.47 mSv effective dose savings. Scout image radiation dose itself was reduced by 48 % utilizing 3D Landmark (16.67 vs. 8.67 mGy·cm).

Figure Legend Snippet: Traditional and 3D Landmark scout images and scan start/end positions for a chest CT of a 54-year old female. (a) Traditional AP and lateral scout images and start and end scan positions. Lines A and D, and corresponding axial images represent the actual start and end positions of the CT scan planned using traditional scout images where the radiographer estimates the organ locations. Lines B and C and corresponding axial images represent the proper start and end positions for the chest CT to start above the lung apex and go through both adrenal glands. (b) Axial ultra-low dose CT images generated by 3D Landmark scouting and corresponding coronal and lateral projections from the same patient. E and F represent the appropriate start and end positions of the CT planned using the axial 3D Landmark images resulting in a decreased scan length of 34 mm compared to prior imaging (panel a) planned using traditional scout imaging (325 vs 291 mm, respectively). Correspondingly, the radiation dose of the chest CT scan planned by 3D landmark was reduced by 12 % compared to her prior scan planned with traditional scout imaging (249.8 mGy·cm vs 283.7 mGy·cm), representing a 0.47 mSv effective dose savings. Scout image radiation dose itself was reduced by 48 % utilizing 3D Landmark (16.67 vs. 8.67 mGy·cm).

Techniques Used: Computed Tomography, Generated, Imaging

Demographics of 61 patients undergoing a total of 104 CT examinations. Weight and BMI is presented for patients at time of prior CT examination planned with traditional scout imaging (“prior”) and at time of recent CT examination planned with 3D Landmark and ALD (“new”).

Figure Legend Snippet: Demographics of 61 patients undergoing a total of 104 CT examinations. Weight and BMI is presented for patients at time of prior CT examination planned with traditional scout imaging (“prior”) and at time of recent CT examination planned with 3D Landmark and ALD (“new”).

Techniques Used: Imaging, Standard Deviation

Scan lengths and radiation doses for 104 CT examinations planned using traditional scout imaging (“prior”) and planned using 3D Landmark and ALD (“new”). Radiation doses presented as dose length product (DLP), effective dose (in milisieverts), and CT dose index (CTDI). Total DLP and CTDI reflect the sum of the scout imaging dose and acquisition dose. Scan lengths, DLP and corresponding effective doses of diagnostic acquisitions are further broken into subgroup by body region. Effective radiation dose in millisieverts (mSv) was calculated from the DLP using a k factor of 0.014 for chest, 0.015 for abdomen, and 0.0145 for chest/abdomen/pelvis <xref ref-type=

[13] . Data represented as median and interquartile range. n = 50 for chest CT scan length, n = 16 for abdomen scan length, n = 38 for chest/abdomen/pelvis scan length, and n = 104 for scout scan length. n = 49 for chest radiation doses, n = 15 for abdomen radiation doses, n = 36 for chest/abdomen/pelvis radiation doses, and n = 100 for scout radiation doses." title="... using traditional scout imaging (“prior”) and planned using 3D Landmark and ALD (“new”). Radiation doses ..." property="contentUrl" width="100%" height="100%"/>
Figure Legend Snippet: Scan lengths and radiation doses for 104 CT examinations planned using traditional scout imaging (“prior”) and planned using 3D Landmark and ALD (“new”). Radiation doses presented as dose length product (DLP), effective dose (in milisieverts), and CT dose index (CTDI). Total DLP and CTDI reflect the sum of the scout imaging dose and acquisition dose. Scan lengths, DLP and corresponding effective doses of diagnostic acquisitions are further broken into subgroup by body region. Effective radiation dose in millisieverts (mSv) was calculated from the DLP using a k factor of 0.014 for chest, 0.015 for abdomen, and 0.0145 for chest/abdomen/pelvis [13] . Data represented as median and interquartile range. n = 50 for chest CT scan length, n = 16 for abdomen scan length, n = 38 for chest/abdomen/pelvis scan length, and n = 104 for scout scan length. n = 49 for chest radiation doses, n = 15 for abdomen radiation doses, n = 36 for chest/abdomen/pelvis radiation doses, and n = 100 for scout radiation doses.

Techniques Used: Imaging, Diagnostic Assay, Computed Tomography

Dose-length product (DLP) (mGy·cm) for (a) chest, (b) abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection and performed on next generation CT (“new DLP”) versus those planned using traditional scout methods (“prior DLP”). (a) Median DLP for chest CT was reduced by 11.9 %, from 182.1 (IQR 146.1–283.7) to 160.4 (IQR 133.8–223.6) mGy·cm, p = 0.007, n = 49. (b). Median DLP for abdomen CT was reduced by 47.3 % from 236.8 (IQR 178.1–284.60) to 124.9 (96.8–166.8) mGy·cm, p = 0.004, n = 15. (c) Median DLP for chest/abdomen/pelvis CT was reduced by 28.6 %, from 531.6 (IQR 465.4–689.2) to 379.7 (IQR 319.0–531.8) mGy·cm, respectively, p = 0.001, n = 36.

Figure Legend Snippet: Dose-length product (DLP) (mGy·cm) for (a) chest, (b) abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection and performed on next generation CT (“new DLP”) versus those planned using traditional scout methods (“prior DLP”). (a) Median DLP for chest CT was reduced by 11.9 %, from 182.1 (IQR 146.1–283.7) to 160.4 (IQR 133.8–223.6) mGy·cm, p = 0.007, n = 49. (b). Median DLP for abdomen CT was reduced by 47.3 % from 236.8 (IQR 178.1–284.60) to 124.9 (96.8–166.8) mGy·cm, p = 0.004, n = 15. (c) Median DLP for chest/abdomen/pelvis CT was reduced by 28.6 %, from 531.6 (IQR 465.4–689.2) to 379.7 (IQR 319.0–531.8) mGy·cm, respectively, p = 0.001, n = 36.

Techniques Used:

Scan length (mm) for (a) chest, (b), abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection versus those planned using traditional scout images. (a) Median scan length 317.3 (IQR 302.3–338)mm compared to 330 (IQR 325.8–360)mm, respectively (p < 0.001, n = 50). Median reduction of 12.7 mm represented by the black dashed line. (b) Median scan length 235.5 (IQR 209.5–246)mm compared to 250 (IQR 240.1–260)mm respectively(p = 0.003, n = 16). Median reduction of 14.5 mm represented by the black line. (c) Median scan length 635 (IQR 625–667.3)mm compared to 660 (IQR 641.3–687.3)mm respectively (p < 0.001, n = 38). Median reduction of 25.0 mm represented by the black line.

Figure Legend Snippet: Scan length (mm) for (a) chest, (b), abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection versus those planned using traditional scout images. (a) Median scan length 317.3 (IQR 302.3–338)mm compared to 330 (IQR 325.8–360)mm, respectively (p < 0.001, n = 50). Median reduction of 12.7 mm represented by the black dashed line. (b) Median scan length 235.5 (IQR 209.5–246)mm compared to 250 (IQR 240.1–260)mm respectively(p = 0.003, n = 16). Median reduction of 14.5 mm represented by the black line. (c) Median scan length 635 (IQR 625–667.3)mm compared to 660 (IQR 641.3–687.3)mm respectively (p < 0.001, n = 38). Median reduction of 25.0 mm represented by the black line.

Techniques Used:

Image Search Results

Journal: European Journal of Radiology Open

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

doi: 10.1016/j.ejro.2024.100578

Figure Lengend Snippet: Traditional and 3D Landmark scout images and scan start/end positions for a chest CT of a 54-year old female. (a) Traditional AP and lateral scout images and start and end scan positions. Lines A and D, and corresponding axial images represent the actual start and end positions of the CT scan planned using traditional scout images where the radiographer estimates the organ locations. Lines B and C and corresponding axial images represent the proper start and end positions for the chest CT to start above the lung apex and go through both adrenal glands. (b) Axial ultra-low dose CT images generated by 3D Landmark scouting and corresponding coronal and lateral projections from the same patient. E and F represent the appropriate start and end positions of the CT planned using the axial 3D Landmark images resulting in a decreased scan length of 34 mm compared to prior imaging (panel a) planned using traditional scout imaging (325 vs 291 mm, respectively). Correspondingly, the radiation dose of the chest CT scan planned by 3D landmark was reduced by 12 % compared to her prior scan planned with traditional scout imaging (249.8 mGy·cm vs 283.7 mGy·cm), representing a 0.47 mSv effective dose savings. Scout image radiation dose itself was reduced by 48 % utilizing 3D Landmark (16.67 vs. 8.67 mGy·cm).

Article Snippet: 61 consecutive patients with prior CT examination of the same body region that underwent clinical CT planned using 3D Landmark Scan and ALD (Canon Medical Aquilion ONE Insight Edition; Otawara, Tochigi, Japan) at a single center over a 3-month period from 7/17/23–10/16/23 were included in this study.

Techniques: Computed Tomography, Generated, Imaging

Journal: European Journal of Radiology Open

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

doi: 10.1016/j.ejro.2024.100578

Figure Lengend Snippet: Demographics of 61 patients undergoing a total of 104 CT examinations. Weight and BMI is presented for patients at time of prior CT examination planned with traditional scout imaging (“prior”) and at time of recent CT examination planned with 3D Landmark and ALD (“new”).

Techniques: Imaging, Standard Deviation

Journal: European Journal of Radiology Open

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

doi: 10.1016/j.ejro.2024.100578

Figure Lengend Snippet: Scan lengths and radiation doses for 104 CT examinations planned using traditional scout imaging (“prior”) and planned using 3D Landmark and ALD (“new”). Radiation doses presented as dose length product (DLP), effective dose (in milisieverts), and CT dose index (CTDI). Total DLP and CTDI reflect the sum of the scout imaging dose and acquisition dose. Scan lengths, DLP and corresponding effective doses of diagnostic acquisitions are further broken into subgroup by body region. Effective radiation dose in millisieverts (mSv) was calculated from the DLP using a k factor of 0.014 for chest, 0.015 for abdomen, and 0.0145 for chest/abdomen/pelvis [13] . Data represented as median and interquartile range. n = 50 for chest CT scan length, n = 16 for abdomen scan length, n = 38 for chest/abdomen/pelvis scan length, and n = 104 for scout scan length. n = 49 for chest radiation doses, n = 15 for abdomen radiation doses, n = 36 for chest/abdomen/pelvis radiation doses, and n = 100 for scout radiation doses.

Techniques: Imaging, Diagnostic Assay, Computed Tomography

Journal: European Journal of Radiology Open

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

doi: 10.1016/j.ejro.2024.100578

Figure Lengend Snippet: Dose-length product (DLP) (mGy·cm) for (a) chest, (b) abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection and performed on next generation CT (“new DLP”) versus those planned using traditional scout methods (“prior DLP”). (a) Median DLP for chest CT was reduced by 11.9 %, from 182.1 (IQR 146.1–283.7) to 160.4 (IQR 133.8–223.6) mGy·cm, p = 0.007, n = 49. (b). Median DLP for abdomen CT was reduced by 47.3 % from 236.8 (IQR 178.1–284.60) to 124.9 (96.8–166.8) mGy·cm, p = 0.004, n = 15. (c) Median DLP for chest/abdomen/pelvis CT was reduced by 28.6 %, from 531.6 (IQR 465.4–689.2) to 379.7 (IQR 319.0–531.8) mGy·cm, respectively, p = 0.001, n = 36.

Techniques:

Journal: European Journal of Radiology Open

Article Title: Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure

doi: 10.1016/j.ejro.2024.100578

Figure Lengend Snippet: Scan length (mm) for (a) chest, (b), abdomen, and (c) chest/abdomen/pelvis CT exams planned using 3D Landmark Scan and Anatomic Landmark Detection versus those planned using traditional scout images. (a) Median scan length 317.3 (IQR 302.3–338)mm compared to 330 (IQR 325.8–360)mm, respectively (p < 0.001, n = 50). Median reduction of 12.7 mm represented by the black dashed line. (b) Median scan length 235.5 (IQR 209.5–246)mm compared to 250 (IQR 240.1–260)mm respectively(p = 0.003, n = 16). Median reduction of 14.5 mm represented by the black line. (c) Median scan length 635 (IQR 625–667.3)mm compared to 660 (IQR 641.3–687.3)mm respectively (p < 0.001, n = 38). Median reduction of 25.0 mm represented by the black line.

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1) Product Images from "Reduced dose helical CT scout imaging on next generation wide volume CT system decreases scan length and overall radiation exposure"

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