Kyoto Collection

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Introduction

Congenital Anomaly Research Center, Kyoto University Graduate School of Medicine, Japan.
  • Begun by Dr. Hideo Nishimura in 1961 and has over 44,000 human specimens.
  • Developed and curated by Prof. Kohei Shiota.
  • Currently curated by Prof. Shigehito Yamada.


Prof. Kohei Shiota, Dr Mark Hill, Prof. Shigehito Yamada and Prof. Mineo Yasuda

Prof. Kohei Shiota, Dr Mark Hill, Prof. Shigehito Yamada and Prof. Mineo Yasuda

Embryo Collections: Human Embryo Collections | Embryo Collections | Blechschmidt Collection | Carnegie Collection | Domenech-Mateu Collection | Harvard Collection | Hill Collection | Hinrichsen Collection | Hubrecht Collection | Kyoto Collection | Madrid Collection | Embryology Models | DEC Information | DEC
| Kyoto Homepage
File:Hideo Nishimura.jpg
Hideo Nishimura (1912–1995)

AvailableBook.png Kyoto Embryo Collection - cover.jpg

Kyoto Embryos

Kyoto 2015 Symposium 40 slide01)

40th Anniversary Commemoration Symposium (2015) (Kyoto University, Japan)

iBook - Kyoto Embryo Collection  
Kyoto Embryo Collection - cover.jpg
  • iTunes Link (not yet available).
  • Description - The Kyoto embryo collection is the largest collection of human embryos in the world, it therefore provides a unique research and educational resource for studying all aspects of early human development. This iBook now allows you to observe selected embryos from the first 8 weeks after fertilization and explore for yourself the changes that occur in normal human development during this key period. This atlas of the Kyoto embryos from Carnegie Stage 7 to 23 provides a brief description of each stage, surface views, interactive images, histology, movies and a glossary.
  • Release: First Edition - August, 2016 ISBN 978-0-7334-3528-7
  • Print Length 196 Pages, 250 Mb Language English.
  • The current website also includes numerous embryo images from this textbook (see Kyoto Collection and Embryonic Development).

Sample Publications

Sequential atlas of human congenital malformations (1976)
Atlas of Human Prenatal Histology (1984)
  • Cartilage formation in the pelvic skeleton during the embryonic and early-fetal period.[1] "The pelvic skeleton is formed via endochondral ossification. However, it is not known how the normal cartilage is formed before ossification occurs. Furthermore, the overall timeline of cartilage formation and the morphology of the cartilage in the pelvis are unclear. In this study, cartilage formation in the pelvic skeletons of 25 human fetuses (crown-rump length [CRL] = 11.9-75.0 mm) was observed using phase-contrast computed tomography and 7T magnetic resonance imaging. The chondrification center of the ilium, ischium, and pubis first appeared simultaneously at Carnegie stage (CS) 18, was located around the acetabulum, and grew radially in the later stage. The iliac crest formed at CS20 while the iliac body's central part remained chondrified. The iliac body formed a discoid at CS22. The growth rate was greater in the ilium than in the sacrum-coccyx, pubis, and ischium. Connection and articulation formed in a limited period, while the sacroiliac joint formed at CS21. The articulation of the pubic symphysis, connection of the articular column in the sacrum, and Y-shape connection of the three parts of the hip bones to the acetabulum were observed at CS23; the connection of the ischium and pubic ramus was observed at the early-fetal stage. Furthermore, the degree of connection at the center of the sacrum varied among samples. Most of the pelvimetry data showed a high correlation with CRL. The transverse and antero-posterior lengths of the pelvic inlet of the lesser pelvis varied among samples (R2 = 0.11). The subpubic angle also varied (65-90°) and was not correlated with CRL (R2 = 0.22). Moreover, cartilaginous structure formation appeared to influence bone structure. This study provides valuable information regarding the morphogenesis of the pelvic structure."
  • A detailed comparison of mouse and human cardiac development[2] "Episcopic fluorescence image capture (EFIC) was performed on 66 wild-type mouse embryos from embryonic day (E) 9.5 to birth; 2-dimensional and 3-dimensional datasets were compared with EFIC and magnetic resonance images from a study of 52 human fetuses (Carnegie stage 13-23). Time course of atrial, ventricular, and outflow septation were outlined and followed a similar sequence in both species. Bilateral venae cavae and prominent atrial appendages were seen in the mouse fetus; in human fetuses, atrial appendages were small, and a single right superior vena cava was present. In contrast to humans with separate pulmonary vein orifices, a pulmonary venous confluence with one orifice enters the left atrium in mice. The cardiac developmental sequences observed in mouse and human fetuses are comparable, with minor differences in atrial and venous morphology. These comparisons of mouse and human cardiac development strongly support that mouse morphogenesis is a good model for human development."
  • Morphogenesis of the spleen during the human embryonic period[3] "Between Carnegie stages (CSs) 14 and 17, the spleen was usually recognized as a bulge in the dorsal mesogastrium (DM), and after CS 20, the spleen became apparent. Intrasplenic folds were observed later. A high-density area was first recognized in 6 of the 58 cases at CS 16 and in all cases examined after CS 18. The spleen was recognized neither as a bulge nor as a high-density area at CS 13. The mesothelium was pseudostratified until CS 16 and was replaced with high columnar cells and then with low columnar cells. The basement membrane was obvious after CS 17. The mesenchymal cells differentiated from cells in the DM, and sinus formation started at CS 20. Hematopoietic cells were detected after CS 18. The vessels were observed at CS 14 in the DM. Hilus formation was observed after CS 20. The parallel entries of the arteries and veins were observed at CS 23. The rate of increase in spleen length in relation to that of stomach length along the cranial-caudal direction was 0.51 ± 0.11, which remained constant during CSs 19 and 23, indicating that their growths were similar."
  • Human embryo imaging with a super-parallel magnetic resonance (MR) microscope[4]
  • Polydactyly in human embryos[5] "129 embryos with polydactyly in 36,380 human conceptuses obtained through induced abortion during the period from 1962 to 1974."

Sample Embryos

Image source: The Kyoto Collection images are reproduced with the permission of Prof. Kohei Shiota and Prof. Shigehito Yamada, Anatomy and Developmental Biology, Kyoto University Graduate School of Medicine, Kyoto, Japan for educational purposes only and cannot be reproduced electronically or in writing without permission.

Kyoto Specimens (Last Updated - April 7, 2014) Specimens 23,813
Stage 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 Embryonic   Fetal
Normal 14 16 5 25 44 298 745 2133 1569 2653 2621 2697 2417 2393 1620 1101 909 21260 920
Abnormal   0 0 1 2 4 9 42 69 40 167 236 186 131 265 260 114 50 1576 54
Total 14 16 6 27 48 307 787 2202 1609 2820 2857 2883 2548 2658 1880 1215 959 22836 974
Week: 1 2 3 4 5 6 7 8
Carnegie stage: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23

Stage 7

Stage7.jpg


Link: Carnegie stage 7

Stage 8

Stage8 bf4.jpg


Link: Carnegie stage 8

Stage 9

Stage9 dorsal.jpg Stage9 ventral.jpg


Link: Carnegie stage 9

Stage 10

Stage10 bf4.jpg

Stage10 bf5.jpg


Link: Carnegie stage 10

Stage 11

Stage11 bf7.jpg

Stage 12

Stage12 bf5.jpg


Link: Carnegie stage 12

Stage 13

Stage13 bf2.jpg


Link: Carnegie stage 13

Stage 14

Stage14 bf2.jpg


Link: Carnegie stage 14

Stage 15

Stage15 bf1.jpg


Link: Carnegie stage 15

Stage 16

Stage16 bf1.jpg


Link: Carnegie stage 16

Stage 17

Stage17 bf1.jpg


Link: Carnegie stage 17

Stage 18

Stage18 bf1.jpg

Kyoto 25783 Links: right+yolk | left+yolk | left | ventral | right | dorsal | Kyoto Collection | Carnegie stage 18


Link: Carnegie stage 18

Stage 19

Stage19 bf1.jpg


Link: Carnegie stage 19

Stage 20

Stage20 bf1.jpg


Link: Carnegie stage 20

Stage 21

Stage21 bf1.jpg


Link: Carnegie stage 21

Stage 22

Stage22 bf1.jpg


Link: Carnegie stage 22

Stage 23

Stage23 bf1.jpg


Link: Carnegie stage 23
Carnegie Stages: 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8 | 9 | 10 | 11 | 12 | 13 | 14 | 15 | 16 | 17 | 18 | 19 | 20 | 21 | 22 | 23 | About Stages | Timeline

Related Images

Limb Development (week 8)

Limb Development (week 8)

External ear stages-14-23-adult.jpg

External ear stages

References

  1. Misaki Okumura, Aoi Ishikawa, Tomoki Aoyama, Shigehito Yamada, Chigako Uwabe, Hirohiko Imai, Tetsuya Matsuda, Akio Yoneyama, Tohoru Takeda, Tetsuya Takakuwa Cartilage formation in the pelvic skeleton during the embryonic and early-fetal period. PLoS ONE: 2017, 12(4);e0173852 PubMed 28384153
  2. Anita Krishnan, Rajeev Samtani, Preeta Dhanantwari, Elaine Lee, Shigehito Yamada, Kohei Shiota, Mary T Donofrio, Linda Leatherbury, Cecilia W Lo A detailed comparison of mouse and human cardiac development. Pediatr. Res.: 2014; PubMed 25167202
  3. Aya Endo, Saki Ueno, Shigehito Yamada, Chigako Uwabe, Tetsuya Takakuwa Morphogenesis of the spleen during the human embryonic period. Anat Rec (Hoboken): 2014; PubMed 25403423
  4. Yoshimasa Matsuda, Shinya Ono, Yosuke Otake, Shinya Handa, Katsumi Kose, Tomoyuki Haishi, Shigeto Yamada, Chikako Uwabe, Kohei Shiota Imaging of a large collection of human embryo using a super-parallel MR microscope. Magn Reson Med Sci: 2007, 6(3);139-46 PubMed 18037794
  5. < K Shiota, E Matsunaga A genetic and epidemiologic study of polydactyly in human embryos in Japan. Jinrui Idengaku Zasshi: 1978, 23(2);173-92 PubMed 691840


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Cite this page: Hill, M.A. 2017 Embryology Kyoto Collection. Retrieved November 24, 2017, from https://embryology.med.unsw.edu.au/embryology/index.php/Kyoto_Collection

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© Dr Mark Hill 2017, UNSW Embryology ISBN: 978 0 7334 2609 4 - UNSW CRICOS Provider Code No. 00098G