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Hematology Collection (page 6)

Hematology, the study of blood and its components, is a fascinating field that delves into the intricate workings of our circulatory system

Background imageHematology Collection: Uterine bleeding treatment, DSA scan

Uterine bleeding treatment, DSA scan
Uterine bleeding treatment. Coloured digital subtraction angiogram (DSA) of the pelvic region of a 45-year-old woman with menometrorrhagia, showing embolisation of the uterine arteries

Background imageHematology Collection: Red and white blood cells, artwork C016 / 4629

Red and white blood cells, artwork C016 / 4629
Red and white blood cells, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic

Background imageHematology Collection: Red and white blood cells, artwork C016 / 4630

Red and white blood cells, artwork C016 / 4630
Red and white blood cells, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic

Background imageHematology Collection: Red blood cells, artwork C016 / 4627

Red blood cells, artwork C016 / 4627
Red blood cells, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic, enabling them to pass through narrow capillary vessels

Background imageHematology Collection: Red blood cells, artwork C016 / 4626

Red blood cells, artwork C016 / 4626
Red blood cells, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic, enabling them to pass through narrow capillary vessels

Background imageHematology Collection: Red blood cell, artwork C016 / 4622

Red blood cell, artwork C016 / 4622
Red blood cell, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic, enabling them to pass through narrow capillary vessels

Background imageHematology Collection: Red blood cell, artwork C016 / 4623

Red blood cell, artwork C016 / 4623
Red blood cell, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic, enabling them to pass through narrow capillary vessels

Background imageHematology Collection: Red blood cell, artwork C016 / 4624

Red blood cell, artwork C016 / 4624
Red blood cell, computer artwork. Red blood cells are biconcave, giving them a large surface area for gas exchange, and highly elastic, enabling them to pass through narrow capillary vessels

Background imageHematology Collection: Fish blood cells, confocal micrograph C016 / 3115

Fish blood cells, confocal micrograph C016 / 3115
Fish blood cells. Laser scanning confocal micrograph of fish blood cells

Background imageHematology Collection: White blood cells, SEM C016 / 3102

White blood cells, SEM C016 / 3102
White blood cells. Coloured scanning electron micrograph (SEM) of white blood cells (leucocytes) from a sample of peripheral blood

Background imageHematology Collection: Blood cells, SEM C016 / 3101

Blood cells, SEM C016 / 3101
Blood cells. Coloured scanning electron micrograph (SEM) of a variety of different white blood cells (leucocytes, blue/purple) with two red blood cells (erythrocytes)

Background imageHematology Collection: Blood cells, SEM C016 / 3100

Blood cells, SEM C016 / 3100
Blood cells. Coloured scanning electron micrograph (SEM) of a variety of different white blood cells (leucocytes, yellow/green) with two red blood cells (erythrocytes)

Background imageHematology Collection: Blood cells, SEM C016 / 3096

Blood cells, SEM C016 / 3096
Blood cells. Coloured scanning electron micrograph of a lymphocyte white blood cell (left) and a red blood cell (erythrocyte, right)

Background imageHematology Collection: Macrophage and platelets, SEM C016 / 3094

Macrophage and platelets, SEM C016 / 3094
Macrophage and platelets. Coloured scanning electron micrograph (SEM) of platelets (green) attached to a macrophage white blood cell (turquoise)

Background imageHematology Collection: Platelets, SEM C016 / 3091

Platelets, SEM C016 / 3091
Platelets, coloured scanning electron micrograph (SEM). Platelets, or thrombocytes, are fragments of white blood cells. When blood clots

Background imageHematology Collection: Lymphocyte white blood cell, SEM C016 / 3087

Lymphocyte white blood cell, SEM C016 / 3087
Lymphocyte white blood cell. Coloured scanning electron micrograph (SEM) of a lymphocyte white blood cell. Lymphocytes are involved in the immune systems defence mechanisms, lymph system

Background imageHematology Collection: Lymphocyte white blood cell, SEM C016 / 3086

Lymphocyte white blood cell, SEM C016 / 3086
Lymphocyte white blood cell. Coloured scanning electron micrograph (SEM) of a lymphocyte white blood cell. Lymphocytes are involved in the immune systems defence mechanisms, lymph system

Background imageHematology Collection: Red blood cells, light micrograph C016 / 3036

Red blood cells, light micrograph C016 / 3036
Red blood cells. Differential interference contrast (DIC) micrograph of red blood cells (erythrocytes). Red blood cells are biconcave, giving them a large surface area for gas exchange

Background imageHematology Collection: Malaria parasite in red blood cell C016 / 2444

Malaria parasite in red blood cell C016 / 2444
Malaria parasite in red blood cell. Light micrograph of a red blood cell (erythrocyte) infected with a Plasmodim vivax protozoan. This parasite causes recurring malaria in humans

Background imageHematology Collection: Malaria parasite in red blood cell C016 / 2443

Malaria parasite in red blood cell C016 / 2443
Malaria parasite in red blood cell. Light micrograph of a red blood cell (erythrocyte) infected with a Plasmodim vivax protozoan. This parasite causes recurring malaria in humans

Background imageHematology Collection: Malaria parasite in red blood cell C016 / 2442

Malaria parasite in red blood cell C016 / 2442
Malaria parasite in red blood cell. Light micrograph of a red blood cell (erythrocyte) infected with a Plasmodim vivax protozoan. This parasite causes recurring malaria in humans

Background imageHematology Collection: Blood test C013 / 9854

Blood test C013 / 9854
Blood test. Close-up of a dressing on the arm of a patient at the site where a needle was inserted to take a blood sample

Background imageHematology Collection: Doctor holding a blood sample C013 / 8842

Doctor holding a blood sample C013 / 8842
Doctor holding a blood sample

Background imageHematology Collection: Doctor holding a blood sample C013 / 8841

Doctor holding a blood sample C013 / 8841
Doctor holding a blood sample

Background imageHematology Collection: Red blood cells (erythrocytes), artwork C013 / 8812

Red blood cells (erythrocytes), artwork C013 / 8812
Red blood cells (erythrocytes), computer artwork

Background imageHematology Collection: Anaemia, conceptual image C013 / 7788

Anaemia, conceptual image C013 / 7788
Anaemia, conceptual image. Computer artwork of anaemic red blood cells, which are no longer red as they have lost their haemoglobin and therefore their ability to carry iron

Background imageHematology Collection: Glycated haemoglobin molecule C013 / 7781

Glycated haemoglobin molecule C013 / 7781
Glycated haemoglobin molecule. Computer model of a glycated haemoglobin molecule. The alpha and beta subunits of the haemoglobin are blue and pink, and the iron-containing haem groups are grey

Background imageHematology Collection: Glycated haemoglobin molecule C013 / 7779

Glycated haemoglobin molecule C013 / 7779
Glycated haemoglobin molecule. Computer model showing a glucose molecule (centre) bound to a molecule of haemoglobin. The alpha and beta subunits of the haemoglobin are blue and pink

Background imageHematology Collection: Glycated haemoglobin molecule C013 / 7780

Glycated haemoglobin molecule C013 / 7780
Glycated haemoglobin molecule. Computer model showing a glucose molecule (centre) bound to a molecule of haemoglobin. The alpha and beta subunits of the haemoglobin are blue and pink

Background imageHematology Collection: Blood clot C013 / 7129

Blood clot C013 / 7129
Blood clot. Coloured scanning electron micrograph (SEM) of a blood clot (centre) forming in connective tissue. Red blood cells (erythrocytes)

Background imageHematology Collection: Blood clot C013 / 7128

Blood clot C013 / 7128
Blood clot. Coloured scanning electron micrograph (SEM) of a blood clot (centre) forming in connective tissue. Red blood cells (erythrocytes)

Background imageHematology Collection: Lymph node, artwork C013 / 4632

Lymph node, artwork C013 / 4632
Lymph node. Computer artwork of a section through a human lymph node. Lymph nodes are kidney-shaped structures located at intervals along lymph vessels (tubes)

Background imageHematology Collection: Lymph node, artwork C013 / 4631

Lymph node, artwork C013 / 4631
Lymph node. Computer artwork of a section through a human lymph node. Lymph nodes are kidney-shaped structures located at intervals along lymph vessels (tubes)

Background imageHematology Collection: Blood cancer, conceptual image C013 / 4618

Blood cancer, conceptual image C013 / 4618
Blood cancer, conceptual image. Computer artwork of the interior of a blood vessel, showing cancer cells (dark) amongst normal red blood cells (red)

Background imageHematology Collection: Red blood cells, artwork C013 / 4616

Red blood cells, artwork C013 / 4616
Red blood cells. Computer artwork of red blood cells (erythrocytes) flowing through a blood vessel

Background imageHematology Collection: Red blood cells, artwork C013 / 4615

Red blood cells, artwork C013 / 4615
Red blood cells. Computer artwork of red blood cells (erythrocytes) flowing through a blood vessel

Background imageHematology Collection: Blood cancer, conceptual image C013 / 4614

Blood cancer, conceptual image C013 / 4614
Blood cancer, conceptual image. Computer artwork of the interior of a blood vessel, showing cancer cells (white) amongst normal red blood cells (red)

Background imageHematology Collection: Haematopoietic stem cell, SEM C013 / 5008

Haematopoietic stem cell, SEM C013 / 5008
Haematopoietic stem cell, coloured scanning electron micrograph (SEM). Stem cells can differentiate into any other cell type

Background imageHematology Collection: Haematopoietic stem cell, SEM C013 / 5007

Haematopoietic stem cell, SEM C013 / 5007
Haematopoietic stem cell, coloured scanning electron micrograph (SEM). Stem cells can differentiate into any other cell type

Background imageHematology Collection: Haematopoietic stem cell, SEM C013 / 5006

Haematopoietic stem cell, SEM C013 / 5006
Haematopoietic stem cell, coloured scanning electron micrograph (SEM). Stem cells can differentiate into any other cell type

Background imageHematology Collection: Macrophage engulfing a nerve cell, TEM C013 / 4803

Macrophage engulfing a nerve cell, TEM C013 / 4803
Macrophage engulfing a nerve cell. Transmission electron micrograph (TEM) of a section through a macrophage white blood cell (blue) that has engulfed a nerve cell (neuron, centre)

Background imageHematology Collection: T lymphocyte, SEM C013 / 4772

T lymphocyte, SEM C013 / 4772
T lymphocyte. Coloured scanning electron micrograph (SEM) of a T lymphocyte white blood cell, or T cell, surrounded by fibrin strands

Background imageHematology Collection: Blood cells, artwork C013 / 4726

Blood cells, artwork C013 / 4726
Blood cells. Computer artwork of red blood cells (erythrocytes, red), white blood cells (leucocytes, white), and platelets (thrombocytes, yellow)

Background imageHematology Collection: Red blood cells, artwork C013 / 4725

Red blood cells, artwork C013 / 4725
Red blood cells (erythrocytes), computer artwork

Background imageHematology Collection: Anaemia, conceptual image C013 / 4711

Anaemia, conceptual image C013 / 4711
Anaemia, conceptual image. Computer artwork of normal red blood cells (red) and anaemic red blood cells (clear). The anaemic cells are no longer red as they have lost their haemoglobin

Background imageHematology Collection: Blood cells, artwork C013 / 4707

Blood cells, artwork C013 / 4707
Blood cells. Computer artwork of red blood cells (erythrocytes, red), white blood cells (leucocytes, white), and platelets (thrombocytes, yellow)

Background imageHematology Collection: Anaemia, conceptual image C013 / 4709

Anaemia, conceptual image C013 / 4709
Anaemia, conceptual image. Computer artwork of normal red blood cells (red) and anaemic red blood cells (clear). The anaemic cells are no longer red as they have lost their haemoglobin

Background imageHematology Collection: Red blood cells, artwork C013 / 4705

Red blood cells, artwork C013 / 4705
Red blood cells (erythrocytes), computer artwork



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Hematology, the study of blood and its components, is a fascinating field that delves into the intricate workings of our circulatory system. Through advanced imaging techniques such as scanning electron microscopy (SEM), scientists have been able to capture mesmerizing images of red and white blood cells in action. In one captivating SEM image, we witness the vibrant dance between red and white blood cells. The crimson hue of red blood cells contrasts beautifully with their pale counterparts, showcasing the delicate balance required for optimal health. Another striking artwork showcases computer-generated imagery of red blood cells, highlighting their unique structure and function within our bodies. These tiny carriers of oxygen are essential for sustaining life itself. Haematopoietic stem cells take center stage in yet another SEM image. These remarkable cells possess the extraordinary ability to differentiate into various types of blood cells, ensuring a constant supply throughout our lifetime. The importance becomes even more evident when we observe a tuberculosis patient receiving a direct blood transfusion. This life-saving procedure relies on meticulous analysis by hematologists to match compatible donors with recipients accurately. One cannot discuss hematology without mentioning Paul Ehrlich, a pioneering German physician whose groundbreaking work revolutionized this field. His contributions paved the way for advancements in diagnosing and treating various hematological disorders. Histopathology plays an integral role in understanding pathophysiology related to conditions like diabetic foot ulcers. By examining tissue samples under a microscope, experts gain valuable insights into these complex wounds' underlying causes. A conceptual image featuring platelets alongside red and white blood cells symbolizes their collective effort in maintaining proper clotting mechanisms within our bloodstream. This harmonious collaboration ensures swift healing whenever injuries occur. Microscopic views offer us glimpses into diseases like leukemia through detailed images capturing abnormal leukemia cells infiltrating healthy tissues. Such visuals aid researchers in developing targeted therapies against this devastating condition. SEM images continue to captivate us with their portrayal of white blood cells and platelets.