Patient Testing Solution (Mr. Smith) Antibody-A Antibody-B Antibody-Rh Reaction Phenotype (Blood Type) Possible Genotypes for blood type (Clumping?) clumping no clumping clumping A+ AA or AO a) Using a Punnett square determine one possibility of what the patient's (Mr. Smith) parent's blood types could be. For the Punnett square, ignore the Rh+ and Rh-. b) Could the parents be a possible donor? Explain why or why not? You may consider Rh+ and Rh- here.

Patient Testing Solution (Mr. Smith) Antibody-A Antibody-B Antibody-Rh Reaction Phenotype (Blood Type) Possible Genotypes for blood type (Clumping?) clumping no clumping clumping A+ AA or AO a) Using a Punnett square determine one possibility of what the patient's (Mr. Smith) parent's blood types could be. For the Punnett square, ignore the Rh+ and Rh-. b) Could the parents be a possible donor? Explain why or why not? You may consider Rh+ and Rh- here.

Basic Clinical Laboratory Techniques 6E

6th Edition

ISBN:9781133893943

Author:ESTRIDGE

Publisher:ESTRIDGE

Chapter6: Basic Clinical Chemistry

Section6.4: Point-of-care Testing

Problem 8RQ

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Patient Testing Solution (Mr. Smith) Reaction Phenotype (Blood Type) Possible Genotypes for blood type (Clumping? Antibody-A Antibody-B | Antibody-Rh clumping no clumping clumping A+ AA or AO 1. a) Using a Punnett square determines one possibility of what the patient's (Mr. Smith) parent's blood types could be. For the Punnett square, ignore the Rh+ and Rh-. b) Could the parents be a possible donor? Explain why or why not? You may consider Rh+ and Rh- here. c)Which donor would you recommend, if any? Explain your choice using concepts and vocabulary from the course. You may use words, drawings or diagrams to clarify your choice. (Approximately 1 paragraph in length). 20 tv MacBook Pro & %23 $ % 2 3 4 7 E R Y P D F K C V 36 MOSISO comm nd
A- B ↑ ↑ C- An image of a hematocrit blood test is shown. Indicate which layer refers to the buffy coat. A B Ос
Phenotype: A2B 1. Give the possible genotype/s of A:B 2. If you were to perform the blood typing of this individual, what are the expected results given the following reagents Phenotype Forward typing (reagents) Reverse typing (reagents) Anti-A Anti-B Anti-H A cells B cells Al Write "+" for presence of agglutination and "-" for absence of agglutination 3. Explain the results of the blood typing, why would there be a "+" or a "" reaction during the testing. Relate your answer to the presence/absence of antigens and/or antibodies
Anti-A Anti-B Anti-Rh Blood Type Slide #1: Mr. Smith Agglutination No Agglutination Agglutination A+ Slide #2: Ms. Jones No agglutination Agglutination No agglutination B- Slide #3: Mr. Green Agglutination Agglutination Agglutination AB+ Slide #4: Ms. Brown No agglutination No agglutination No agglutination O- What ABO antigens are present on the red blood cells of Mr. Green’s blood? What ABO antibodies are present in the plasma of Mr. Green’s blood?
An 50 yo female patient who had a post-partum bleeding. Blood type is O Rh -, Hemoglobin 85mg/dl, Medical Hstory: G2P2 (2002), (+) Multiple Myeloma, non-hypertensive, no history of previous obstetric and gynecologic pathology. The attending physician ordered for Blood transfusion, to secure 3 units of whole blood, properly typed and crossmatched. Forward and reverse typing showed the following results: Forward reactions: Anti-A (4+) Anti-B (0) Reverse reactions: A1 Cells (2+) B Cells (0) Microscopy: Presence of Rouleaux formation A. What is the probable blood type of this patient? B. Describe the discrepancies? Type of discrepancy? C. What testing would you perform next to resolve the discrepancy?
I really need help explaining the rationale here Johnson family requests blood typing of their 2-year-old child (father AB, Rh-negative; mother B, Rh - negative). Resultsof hemagglutination assays of the child’s blood are shown in the next figure. Which of the following conclusionsconcerning the child’s parentage is valid?
BACKGROUND A 2-year-old black girl is being seen by the hematologist after her pediatrician found her to be severely anemic with splenomegaly and jaundice. Her mother gives a possible history of a “blood problem” in her family but doesn’t know for sure. Her hemoglobin electrophoresis was normal, and the complete blood count (CBC) revealed a normocytic anemia. The platelet and white blood cell counts are normal. On the peripheral smear, there are many bizarre erythrocytes, including spiculated cells. A diagnosis of pyruvate kinase deficiency is made. Pyruvate kinase deficiency (PKD) can be inherited in an autosomal recessive manner, which means that a child must inherit a gene with the disease-causing mutation from both parents in order for the disorder to be inherited. The PLKR gene regulates the synthesis of the pyruvate kinase enzyme, which is located in the liver and red blood cells. Pyruvate kinase deficiency (PKD) is a rare genetic disorder characterized by the premature…
The patient phenotypes as group AB, D-positive. Her antibody screen is negative on the sample drawn in the emergency department. Patient records indicate a previously detected anti-E. Only three group AB, D-positive RBC units are available in the blood bank’s inventory. The blood bank’s inventory contains RBC donor units of all ABO and D types. After antigen screening of the four units of RBCs for the E antigen, one of the group AB, D-positive units is E positive. Calculate the number of donor units to screen to find the four units ordered plus two more units to hold in reserve for the patient. Having located six E-negative donor units, you perform crossmatches on the units. One of the units is incompatible in the antiglobulin phase (2+ reactivity). The physician is becoming insistent on beginning the transfusion because the patient is having some shortness of breath. How do you respond to the physician’s request? List several reasons to explain the incompatible donor unit. What…
An elderly couple was killed in an accident. No surviving relatives are known, so their estate have been willed to chasrity. Later, a man claims that he is their child. Although friends of the couple knew that they had a son, no record of this can be found. Medical records show that the dead man was A Rh’, his wife was B Rh- and the claimant’s blood tests as O Rh’. Does it appear that his claim is valid? Justify your conclusion. A student in genetics is B’. She reports that her father is B- and her mother is O’. Give this student’s genotype for the ABO and Rh blood types.
Maternal anemia occurs when a pregnant woman has a hematocrit Multiple Choice O O O below 60% below 33% below 45% below 50%
Based on the image below, select the correct statement. Complex II QH₂ Q- 10 2 HO 2 HO Fe-S (2.8 FADH₂ FAD- Succinate Fumarate https://canvas.uts.edu.au/assessment questions/356986/files/1562694/download? 2e verifier-eUTT3hYal2YYTWlywV8TIFA3USmzCsM52jECmvTo O Succinate is reduced to fumarate O Succinate is oxidised to FAD O The Fe-S center shuffles electrons from FAD to ubiquinone (Q) O The Fe-S center shuffles electrons from FADH2 to ubiquinone (Q) The Fe-S center shuffles electrons from FADH2 to ubiquinonol (QH2) W 88 16°C
THIS IS BABY's CORD BLOOD SAMPLE. The letters on the cell represent BABY's RBC antigens, those outside of the cell are MOM's antibodies that have crossed the placenta and are in baby's serum. Use your critical thinking skills to determine the following: Mom's (maternal) ABO type. Baby's (newborn) ABO/D type. What antibody(s) can be found in the eluate from baby's cells? Mom: AB Baby: O pos Anti-A,B Mom: AB Baby: O pos Anti-Fya Mom: O Baby: O pos Anti-Fya Mom: A Baby: AB pos Anti-A,B