1.A neutrophil phagocytosing bacteria.
Fabio MIGLIETTA ; Claudio PALUMBO ; Maria AGUGLIA ; Giambattista LOBREGLIO
Blood Research 2017;52(1):9-9
No abstract available.
Bacteria*
;
Neutrophils*
2.Refractory anemia with ring sideroblasts and thrombocytosis.
Blood Research 2017;52(1):8-8
No abstract available.
Anemia, Refractory*
;
Thrombocytosis*
3.Lymphoglandular bodies in bone marrow aspirate smears.
Swachi JAIN ; Smeeta GAJENDRA ; Ritesh SACHDEV
Blood Research 2017;52(1):7-7
No abstract available.
Bone Marrow*
4.The Consortium for Improving Survival of Lymphoma (CISL): recent achievements and future perspective.
Cheolwon SUH ; Byeong Bae PARK ; Won Seog KIM
Blood Research 2017;52(1):3-6
No abstract available.
Lymphoma*
5.Alternative approaches to preserve MSC progenitor potency.
Blood Research 2017;52(1):1-2
No abstract available.
Family
;
Mesenchymal Stem Cell Transplantation
;
Mesenchymal Stromal Cells
;
Preservation, Biological
6.Management of hemophilia in Korea: the past, present, and future.
Blood Research 2014;49(3):144-145
No abstract available.
Hemophilia A*
;
Korea
7.Is a cure for CML without allogeneic stem cell transplantation around the corner?.
Blood Research 2014;49(3):141-143
No abstract available.
Stem Cell Transplantation*
8.Way to go to exploit NK cells' versatile talents for cancer immunotherapy.
Blood Research 2014;49(3):139-140
No abstract available.
Aptitude*
;
Immunotherapy*
9.Childhood acute lymphoblastic leukemia with hyperleukocytosis at presentation.
Seom Gim KONG ; Jung Ho SEO ; So Eun JUN ; Byung Ki LEE ; Young Tak LIM
Blood Research 2014;49(1):29-35
BACKGROUND: Hyperleukocytosis caused by acute lymphoblastic leukemia (ALL) is associated with early morbidity and mortality due to hyperviscosity arising from the excessive number of leukocytes.This study was designed to assess the incidence of hyperleukocytosis, survival outcomes, and adverse features among pediatric ALL patients with hyperleukocytosis. METHODS: Between January 2001 and December 2010, 104 children with previously untreated ALL were enrolled at the Pusan National University Hospital. All of them were initially stratified based on the National Cancer Institute (NCI) risk; 48 (46.2%) were diagnosed with high-risk ALL. The medical charts of these patients were retrospectively reviewed. RESULTS: Twenty (19.2%) of the 104 children with ALL had initial leukocyte counts of >100x10(9)/L, and 11 patients had a leukocyte count of >200x10(9)/L. Male gender, T-cell phenotype, and massive splenomegaly were positively associated with hyperleukocytosis. Common early complications during induction therapy included renal dysfunction, and central nervous system hemorrhage. The complete remission (CR) rate for the pediatric ALL patients with hyperleukocytosis (94.1%) was similar to the overall CR rate (95.6%). The estimated 3-year event free survival (EFS) and overall survival of ALL children with hyperleukocytosis were 75.0% and 81.2%, respectively. However, patients with initial leukocyte counts >200x10(9)/L had a lower EFS than those with initial leukocyte counts 100-200x109/L (63.6% vs. 100%; P=0.046). CONCLUSION: The outcome of pediatric ALL cases with an initial leukocyte count >200x10(9)/L was very poor, probably due to early toxicity-related death during induction therapy.
Busan
;
Central Nervous System
;
Child
;
Disease-Free Survival
;
Hemorrhage
;
Humans
;
Incidence
;
Leukocyte Count
;
Male
;
Mortality
;
National Cancer Institute (U.S.)
;
Phenotype
;
Precursor Cell Lymphoblastic Leukemia-Lymphoma*
;
Retrospective Studies
;
Splenomegaly
;
T-Lymphocytes
10.Characteristics of hematologic malignancies with coexisting t(9;22) and inv(16) chromosomal abnormalities.
Eunhee HAN ; Hyeyoung LEE ; Myungshin KIM ; Yonggoo KIM ; Kyungja HAN ; Sung Eun LEE ; Hee Je KIM ; Dong Wook KIM
Blood Research 2014;49(1):22-28
BACKGROUND: The coexistence of t(9;22)(q34;q11.2) and inv(16)(p13q22) chromosomal abnormalities is extremely uncommon, and only a small number of such cases have been reported. Here, we characterized 7 cases of hematologic malignancy exhibiting t(9;22) and inv(16) coexistence. METHODS: We reviewed the cytogenetic data for hematologic malignancies treated at the Catholic Blood and Marrow Transplantation Center between January 2004 and June 2013. We identified 7 cases exhibiting t(9;22) and inv(16) coexistence. In addition, we analyzed mutations in the IKZF1, NPM1, FLT3, N-RAS, K-RAS, c-KIT, and TP53 genes. RESULTS: Four cases of chronic myelogenous leukemia (CML; 1 chronic phase, 2 accelerated phase, and 1 blast phase) and 3 cases of acute myeloid leukemia (AML; 1 de novo and 2 therapy-related) were identified. The percentages of circulating blasts and bone marrow eosinophils were higher in AML cases than in CML cases (53% vs. 5% and 30% vs. 5.5%, respectively). The proportions of each chromosomal abnormality were used along with follow-up karyotyping results to identify secondary changes. In BCR/ABL, a p210 fusion transcript was associated with CML, whereas a p190 fusion transcript was associated with AML. One patient with AML harbored 2 mutations: c-KIT D816V and TP53 E11Q. All patients except 1 with CML blast phase sustained clinical remission after treatment, which included an imatinib mesylate regimen. CONCLUSION: This study shows that observations of bone marrow morphology, initial and follow-up cytogenetic studies, and karyotyping of BCR/ABL1 and CBFB/MYH11 provide valuable information for characterizing hematologic malignancies exhibiting t(9;22) and inv(16) coexistence.
Blast Crisis
;
Bone Marrow
;
Chromosome Aberrations*
;
Cytogenetics
;
Eosinophils
;
Follow-Up Studies
;
Genes, p53
;
Hematologic Neoplasms*
;
Humans
;
Karyotyping
;
Leukemia, Myelogenous, Chronic, BCR-ABL Positive
;
Leukemia, Myeloid, Acute
;
Mesylates
;
Imatinib Mesylate