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Osteoblast Collection

Osteoblasts, the architects of healthy bone, work tirelessly to build and maintain our skeletal system

Background imageOsteoblast Collection: Osteocyte bone cell, SEM C016 / 9025

Osteocyte bone cell, SEM C016 / 9025
Osteocyte bone cell. Coloured scanning electron micrograph (SEM) of an osteocyte bone cell (blue) surrounded by bone tissue (pink)

Background imageOsteoblast Collection: Osteocyte bone cell, SEM C016 / 9026

Osteocyte bone cell, SEM C016 / 9026
Osteocyte bone cell. Coloured scanning electron micrograph (SEM) of an osteocyte bone cell (red) surrounded by bone tissue (grey)

Background imageOsteoblast Collection: Osteoblast bone cell, SEM

Osteoblast bone cell, SEM
Osteoblast bone cell. Coloured scanning electron micrograph (SEM) of an osteoblast (centre) in bone tissue. Osteoblasts are primarily found in regions of new bone growth

Background imageOsteoblast Collection: Osteoclast breaking down bone tissue

Osteoclast breaking down bone tissue

Background imageOsteoblast Collection: Osteoblasts building healthy bone

Osteoblasts building healthy bone

Background imageOsteoblast Collection: Conceptual image illustrating the process of bone metastasis

Conceptual image illustrating the process of bone metastasis

Background imageOsteoblast Collection: Osteoclasts eroding bone in osteoporosis

Osteoclasts eroding bone in osteoporosis

Background imageOsteoblast Collection: Bone resorption

Bone resorption. Computer artwork of an osteoclast (green, bone-removing cell) destroying a piece of bone. This process, known as bone resorption

Background imageOsteoblast Collection: Bone structural unit

Bone structural unit. Computer artwork of an osteon, the basic structural unit of compact bone. Compact bone is the outer layer of a bone shaft, and contains numerous osteons

Background imageOsteoblast Collection: Bone growth, light micrograph

Bone growth, light micrograph
Bone growth. Light micrograph of actively growing cells in the epiphyseal plate (growth plate) between the diaphysis (shaft) and epiphysis (rounded end) of a long bone

Background imageOsteoblast Collection: Osteoblasts, TEM

Osteoblasts, TEM
Osteoblasts. Coloured transmission electron micrograph of osteoblasts, bone-producing cells (pink). They contain rough endoplasmic reticulum (RER, dark pink lines), which produces

Background imageOsteoblast Collection: Developing bone, light micrograph

Developing bone, light micrograph
Developing bone. Light micrograph of a section through a growing bone. Cartilage cells (blue, top left) are replaced by bone (purple) formed from osteoblast cells

Background imageOsteoblast Collection: Bone growth, artwork

Bone growth, artwork
Bone growth. Computer artwork showing the development and growth of a long bone. Behind the epiphysis (head) is an area of spongy bone consisting of trabeculae filled with bone marrow (green)


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Osteoblasts, the architects of healthy bone, work tirelessly to build and maintain our skeletal system. These remarkable cells are responsible for synthesizing and depositing new bone tissue, ensuring its strength and integrity. Under the scanning electron microscope (SEM), we can observe the intricate structure of osteocytes - mature bone cells that reside within their own lacunae. Their long dendritic processes extend through tiny channels called canaliculi, forming a network that allows them to communicate with neighboring cells. In contrast, osteoclasts play a different role in maintaining bone health. These specialized cells possess an impressive ability to break down old or damaged bone tissue through a process known as resorption. SEM images capture these powerful osteoclasts at work, eroding bone in conditions like osteoporosis or during the natural remodeling process. Bone metastasis is another phenomenon captured conceptually; it illustrates how cancerous cells spread from other parts of the body into bones, disrupting their normal function. This image serves as a reminder of the importance of early detection and treatment for such conditions. Light micrographs provide us with detailed views of various aspects related to bones: from growth patterns seen in developing skeletons to structural units that make up our skeleton's framework. Lastly, transmission electron microscopy (TEM) offers an even closer look at osteoblasts' ultrastructure - revealing their organelles involved in protein synthesis and mineralization processes. These TEM images highlight just how intricately designed these cells are for building strong bones.