Glycaemic Control for Type 2 Diabetes
Disclaimer: This work has been submitted by a student. This is not an example of the work written by our professional academic writers. You can view samples of our professional work here.
Any opinions, findings, conclusions or recommendations expressed in this material are those of the authors and do not necessarily reflect the views of UK Essays.
Published: Thu, 19 Apr 2018
Case study 1: Glycaemic Status
A newly diagnosed type 2 diabetic patient attended his outpatient appointment and reported that he had been tightly monitoring his glycaemic control. The biochemical analysis produced the following results:
[Plasma Glucose] fasting sample 12 mmol/l 4-6 mmol/l
Urea 10.1 mmol/l 3.3-6.8 mmol/l
HbA1c 10% <6.5%
Osmolality (mosm/kg) 277 mosm/kg 285-295 mosm/kg
1] Consider each of these findings and give an assessment of the patient’s glycaemic control.
The above type 2 diabetic patient with abnormal biochemical values [high fasting plasma glucose, HbA1C, urea and borderline Osmolality] showing hyperglycaemic condition though the patient reported, that he had been tightly monitoring his glycaemic control. This describes either his nonadherance to medication [1-4] or fluctuations in plasma glucose levels as he is a newly diagnosed diabetic patient. So he requires more counselling  about the disease monitoring  and management [5-7], medication [medication regimen] alterations.
The high fasting plasma glucose value 12 mmol/l shows patient is having high blood sugar levels at the time of testing and high HbA1C value [10%] gives a retrospective assessment of the mean plasma glucose concentration during the preceding 6-8 weeks. As the percentage is twice the normal value [<6.5%] it shows poor glycaemic control [9-11].
High urea value 10.1 mmol/l shows that renal impairment caused by diabetes mellitus. Plasma creatinine and urea levels are established markers of Glomerular filtration rate [GFR]. High urea value in above patient suggests that impaired function of the nephrons. It could be attributed to a fall in the filtering capacity of the kidney thus leading to accumulation of waste products within the system [12-14, 16].
Borderline osmolality 277 mosm/kg suggests possibility of disrupted water balance from either excessive water intake [polydipsia caused by hyperglycaemia] or inadequate water excretion [impaired kidney function]. In this case further investigations like measurement of urine osmolality, urine volume and urine, plasma electrolytes [sodium] to confirm the reason for hypo osmolality [9, 22].
Thus above all classical symptoms are suggestive of uncontrolled diabetes mellitus.
2] Discuss the importance of glycaemic control and the effects that poor control can cause in these patients.
It is very essential to control the hyper glycaemia in diabetic patients as uncontrolled diabetes can cause life threatening consequences [14, 20].
Vascular disease is a common complication of persistent poor glycaemic control in diabetes [9, 13, 14-16].
Macro vascular disease due to abnormalities of large vessels may present as coronary artery, cerebrovascular or peripheral vascular insufficiency. A number of risk factors have been associated with the metabolic syndrome, including hypertension, poor glycaemic control, central obesity, smoking, dyslipidaemia and glycated end products .
Microvascular disease due to abnormalities of small blood vessels particularly affects the retina [diabetic retinopathy] and the kidney [nephropathy]; both may be related to inadequate glucose control.
Microvascular disease of the kidney is associated with proteinuria and progressive renal failure. Diffuse nodular glomerulosclerosis [Kimmelstiel – Wilson lesions] may cause the nephrotic syndrome. The renal complications may be partly due to the increased glycation of structural proteins in the arterial walls supplying the glomerular basement membrane; glycation of protein in the lens may cause cataracts.
Skin disorders, Infections like urinary tract or chest infections, cellulitis, candida and erectile dysfunction is also most common and partly neurologically mediated. Diabetic neuropathy, which can be peripheral symmetric sensory, peripheral painful, acute mononueropathies or autonomic. Diabetic ulcers, which can be ischemic, infective. The joints can also be affected, Charcot’s joints .
Type 2 diabetic patients are more likely to suffer from a hyperosmolar hyperglycaemic non-ketotic state [HONK] when their diabetic control is deranged [17, 18].
Hypoglycaemia is most commonly caused by accidental over administration of insulin or oral anti diabetic drugs [9, 19].
3] Describe how this particular patient could achieve a better glycaemic control.
The above diabetic patient with abnormal biochemical values could achieve a better glycaemic control, by diet control, weight reduction [if patient is overweight], and increased physical activity, medication adherence, medication regimen alteration and most importantly high dose of insulin may be required to control the hyperglycaemic status [7, 9,17]. Additionally care providers must educate and motivate the patient to monitor glucose levels, control carbohydrate consumption and aggressively participate in self-care to control disorder.
In type 2 diabetic patients incretin hormones [glucagon-like peptide-1 and glucose-dependant insulinotropic polypeptide] maintain normal glucose homeostasis. Thus dipeptidyl peptidase-4 inhibitors, which enhance endogenous incretin function, are well suited for combination with other agents to promote daily glycaemic control without increasing the risk of hypoglycaemia or weight gain .
In this patient insulin secretion can be stimulated by sulphonyl urea drugs. Metformin decreases intestinal glucose absorption and hepatic gluconeogenesis as well as increasing tissue insulin sensitivity and which is particularly used in obese patients .
Acarbose delays postprandial absorption of glucose by inhibiting alpha-glucosidase. Glitazones activate γ-peroxisome proliferator activated receptors and which can reduce insulin resistance. Repaglinide increases insulin release from pancreatic β-cells .
Glycaemic control efforts should involve quarterly glycated haemoglobin assessments, routine monitoring of daily blood glucose values and combination therapy that targets both fasting and post prandial hyperglycaemia. The lifetime strategy for diabetes management might involve aggressive efforts to control glycaemia daily and early in type 2 diabetes, with less stringent glucose targets and avoidance of hypoglycaemia as possibility of comorbidities, such as advanced cardiovascular disease and renal impairment [8, 14, 16, and 20].
1] Khattab, M. et Al.  Factors associated with poor glycemic control among patients with type 2 diabetes. Journal of Diabetes and its Complications, 24, 84-89. [Accessed 12th February 2015].
2] Almutairi, A.M. et Al.  Predictors of poor glycemic control among type 2 diabetic patients. American Journal of Medical Sciences, 3 (2), 17-21. [Accesses 12th February 2015].
3] Blackburn, F D., Swidrovich, J., Lemstra, M.  Nonadherence in type 2 diabetes, practical consideration for interpreting the literature. Patient Preference and Adherence, 7, 183-189. [Accessed 12th February 2015].
4] Di Bonaventura, M. et Al.  The association between nonadherence and glycated haemoglobin among type 2 diabetes patients using basal insulin analogs. Patient Preference and Adherence, 8, 873-882. [Accessed 11th February 2015].
5] Moreira, Jr. D E. et Al.  Glycemic control and diabetes management in hospitalized patients in Brazil. Diabetology and Metabolic Syndrome, 5, 62. Available from: http://www.dmsjournal.com/content/5/1/62 [Accessed 11th February 2015].
6] Schmeltz, R.L. et Al.  Management of inpatient hyperglycemia. Lab Med, 42 (2), 427-434. Available from: http://www.medscape.com/viewarticle/744866_4 [Accessed 13th February].
7] Fowler, J. M. et Al.  Pitfalls in outpatient diabetes management and inpatient glycemic control. Clinical. Diabetes Journal.Org, 29 (2), 79-85. Available from: http://clinical.diabetesjournals.org/content/29/2/79.full [Accessed 13th February 2015].
8] Clarke, S. F. and Foster, J.R.  A history of blood glucose meters and their role in self-monitoring of diabetes mellitus. British Journal of Biomedical Science, 69 (2), 83-93. [Accessed 13th February 2015].
9] Crook, M.A. (2006) Clinical biochemistry. 7th ed. Hodder Arnold
10] Walker, S., Beckett, G., Rae, P. and Ashby, P. (2010) Lecture notes on clinical biochemistry. 8th ed. Wiley – Blackwell.
11] Marshall, WJ. and Bangert, SK. (2004) Clinical chemistry. 5th ed. Mosby
12] Idonije, O. B. et Al  Plasma glucose, creatinine and urea levels in type 2 diabetic patients attending a Nigerian teaching hospital. Research Journal of Medical Sciences, 5 (1), 1-3. Available from: http://www.medwelljournals.com/fulltext/?doi=rjmsci.2011.1.3 [Accessed 13th February 2015].
13] Alao, O. et Al.  Cardiovascular risk factors among diabetic patients attending a Nigerian teaching hospital. The Internet Journal of Endocrinology, 6 (1), 1-8. Available from: https://ispub.com/IJEN/6/1/11009 [Accessed 13th February 2015].
14] The management of type 2 diabetes  NICE clinical guidelines 87. Available from: http://www.nice.org.uk/guidance/cg87 [Accessed 13th February 2015].
15] Wallace, T. M and Matthews, D. R.  Poor glycaemic control in type 2 diabetes: a conspiracy of disease, suboptimal therapy and attitude. The Quarterly Journal of Medicine, 93, 369-374. [Accessed 13th February 2015].
16] Goud B. K, M. et Al.  Serum urea, creatinine in relation to fasting plasma glucose levels in type 2 diabetic patients. International Journal of Pharmacy and Biological Sciences, 1 (3), 279-283. [Accessed 13th February 2015].
17] Pesce, J. A. and Kaplan, A. L.  Methods in Clinical Chemistry. Mosby.
18] Diabetic ketoacidosis. Information about DKA. Patient.co.uk. Available from: http://www.patient.co.uk/doctor/diabeticketoacidosis [Accessed 14th February 2015].
19] Tight diabetic control. American Diabetes Association. Available from: http://www.diabetes.org/livingwithdiabetes/treatmentandcare/bloodglucosecontrol/tightdiabetescontrol.html [Accessed 14th February 2015].
20] Ousman, MD. Y. and Sharma, MD. M.  The irrefutable importance of glycemic control. Clinical Diabetes Journal.Org, 19 (2), 71-72. Available from: http://clinical.diabetesjournals.org/content/19/2/71.full [Accessed 14th February 2015].
21] Bode, BW.  Defining the importance of daily glycemic control and implications for type 2 diabetes management. Postgrad Med., 121 (5), 82-93. Available from: http://www.ncbi.nlm.nih.gov/pubmed/19820277 [Accessed 14th February 2015].
22] Weiner, D. Water regulation and osmolality. Available from: http://ocw.tufts.edu/data/33/497472.pdf [Accessed 17th February 2015]
Cite This Work
To export a reference to this article please select a referencing stye below: