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106 Future developments in diabetes care
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Figure 12.2 A portal venogram showing the
hepatic portal vein prior to administration of isolated human islets. In the Edmonton protocol, an adequate mass of freshly isolated islets is infused through a catheter placed into the main portal vein.
Since the initial Edmonton protocol, there have been further renements in the immunosuppres­sion protocols used for islet transplantation, with more intensive T-cell depletion at the induction of immunosuppression being widely favoured. Overall, results from transplantation are good with about 75% of patients achieving insulin indepen­dence in recent series, and with about half of recip­ients achieving long-term insulin independence. Even among those who do not achieve insulin independence, signicant improvements in gly­caemic control were achieved and sustained, with long-term freedom from severe hypoglycaemia being achieved in the majority of patients, regard­less of whether insulin independence is achieved. e overall duration of insulin independence is variable, with median rates of insulin indepen­dence of between 40% and 60% being reported at 3 to 5 years in dierent cohorts. In contrast, free­dom from hypoglycaemia among recipients who have had recurrent severe hypoglycaemia prior to transplantation is sustained beyond 5 years in the majority of recipients.
ere remain signicant limitations to islet transplantation which mean that it has remained a niche treatment for a small number of people
with T1DM. e need for lifelong immunosuppres­sion is associated with signicant risks including an increased risk of malignancy, particularly for skin cancers and lymphoma. Furthermore, the available supply of human islets remains small and is likely to remain a limiting factor in the long term.
In view of this, the primary indication for islet transplantation remains for patients with intractable, recurrent severe hypoglycaemia that persists despite optimised medical management including use of insulin-pump and sensor tech­nology. A secondary indication is in the manage­ment of patients with suboptimal glucose control who have previously received a kidney trans­plant and are, thus, already on immunosuppres­sion. Islet aer kidney (IAK) transplantation is increasingly being used to optimise diabetes in such patients and carries a more favourable risk– benet ratio through not requiring additional long-term immunosuppression and through the potential to improve renal gra survival through improved diabetes control.
Presently, the strongest evidence for the ben­ets of islet transplantation is in the context of the management of hypoglycaemia, with long-term freedom from hypoglycaemia seen in recipients. Ongoing research in this eld aims to improve islet survival and duration of insulin indepen­dence. is is focused on a greater understand­ing of the immune response that ultimately leads to islet loss and recurrence of T1DM and also on understanding the impact of additional cellular factors that help support islet cell survival and function.
More widespread use of islet cell therapy will require improvements in immunosuppression, islet gra survival and alternative sources of islets other than cadaveric human donor tissue. While various studies have explored encapsula­tion of islets and use of humanised porcine islets, the greatest interest, at present, is in the potential for bioengineered human beta cells (β-cells) and dierentiated islets derived from embryonic stem­cells. Two companies ViaCell and Vertex have recently performed rst-in-man studies and, of particular note, Vertex presented data showing a therapeutic eect in a single patient with a marked reduction in insulin requirements, though not complete insulin independence. Based on these preliminary results, the United States Food and
Type 2 diabetes mellitus: surgical and endoscopic interventions 107
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Drug Administration (FDA) has granted inves­tigational status for a novel device comprising Vertex’ encapsulated embryonic stem-cell-derived islets, which is now entering Phase 1/2 clinical tri­als as a potential treatment for T1DM.
T1DM PREVENTION
Greater understanding of the immune processes underlying the onset of T1DM has now led to the development of the rst proven treatment to attenuate the immune response. e drug tepli­zumab, a humanised anti-CD3 monoclonal anti­body, delays overt T1DM in at-risk individuals. It received FDA approval in 2022 aer a 10-year development programme and is now starting to enter clinical practice. In clinical trials, tepli­zumab was associated with delay in the pro­gression of diabetes by more than 2 years, with preservation of some β-cell function as mea­sured by C-peptide production. is gives the potential for using immunotherapy to alter the natural history of T1DM, as existing evidence has shown that preservation of some β-cell func­tion and C-peptide positivity is associated with reduced risk of complications and better over­all glycaemic stability with less hypoglycaemia. A future challenge in immunotherapy will be to determine screening strategies for the very early detection of T1DM in the population, as such treatment would be most eective when the earliest changes in glucose metabolism occur and while β-cell mass is well preserved. Another challenge will be to bring down the extreme cost of immunotherapy, which, at present, would limit its uptake.
TYPE 2 DIABETES MELLITUS: SURGICAL AND ENDOSCOPIC INTERVENTIONS
A major area of advancement in type 2 diabetes mellitus (T2DM) has been the recognition of the importance of the gut and gut hormones in the aetiology of insulin resistance and dysglycaemia. Much has been learned from the eld of bariatric surgery, which has been shown capable of revers­ing T2DM independent of its eect on weight. Multiple studies have shown that for patients with
obesity, surgical intervention can be more eec­tive than pharmacotherapy. ese observations were initially made in patients with a BMI >35 and have now been extended to those with a BMI in the range of 30–35, which, while still within the diagnostic criteria for obesity, is below the level at which surgical intervention would be consid­ered. Data from observational studies, notably the Swedish Obesity Study, have shown that sur­gical treatment, particularly in the early years aer diabetes, is associated with improved glucose control, reduction in requirement for pharma­cotherapy and, in some cases, reversal of T2DM. Furthermore, long-term follow up in the Swedish cohort has shown that early surgery is associated with a reduction in microvascular complications and cardiovascular morbidity. Of note, improve­ments in blood glucose control and a reduction in insulin requirements are observed very early aer surgery and before major weight loss has occurred. is has led to interest in the underlying mecha­nisms by which bariatric surgery improves glycae­mia, and studies in animals and, in some cases in man, have identied multiple changes that may inuence glucose homeostasis. Given these exten­sive eects, it has been suggested that the term ‘metabolic’ rather than ‘bariatric’ surgery may be more appropriate to describe surgical manage­ment aimed primarily at reversal or management of diabetes (Figure 12.3).
The surgical procedures with the greatest impact on metabolic parameters are those that involve the duodenum and this has led to par­ticular interest in the study of the duodenum’s role in glucose metabolism and its identifica­tion as a potential target for diabetes interven­tions. Studies in rodent models showed that a high fat and sucrose diet leads to a thickening of the duodenal mucosa and that this is associated with the development of insulin resistance and associated metabolic derangement. Ablation of the mucosa was shown to reverse these changes and, based on these observations, a therapeutic intervention has been developed. This inter­vention, Revita Duodenal Mucosal Resurfacing (DMR) is an endoscopic technique by which a balloon catheter is placed in the duodenum and inflated with heated saline to produce a focal thermal injury and ablate the mucosal surface. In initial randomised controlled trials, DMR
108 Future developments in diabetes care
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Figure 12.3 Putative actions of bariatric surgery on metabolic regulation: A broad range of changes
have been described following Roux-en-Y gastric bypass, which may explain the impact of surgery to improve diabetes control.
treatment was associated with improvements in glucose control and insulin resistance. Of par­ticular note, DMR was associated with a reduc­tion in liver fat content and improvements in liver transaminases in patients with elevated baseline liver fat content, suggesting a poten­tial benefit in the management of non-alcoholic fatty liver disease, which is an increasing issue in T2DM. DMR has now entered clinical prac­tice in some regions. Other techniques involv­ing ablation of the duodenal mucosa, including radiofrequency ablation (repurposing a tech­nique developed for treatment of oesophageal dysplasia), are also in development. Another approach to manipulation of the duodenum that has entered clinical practice is the EndoBarrier duodeno-jejunal bypass liner (GI Dynamics,
Boston, US), which was developed primarily to support weight loss. The EndoBarrier is a 60 cm­long polymer tube that is placed endoscopically into the duodenum and anchored at the duo­denal bulb, allowing nutrients to pass directly from the stomach into the jejunum. This is left in place for up to 1 year and then removed at a further endoscopy. The outcomes associated with the use of the device were variable, with a multicentre trial showing no improvement in glycaemic control over standard treatments, whereas significant improvements in weight and glycemic control were observed and main­tained for up to 3 years in a UK clinical practice series of patients with longer-duration diabetes that had proved refractory to standard treat­ment (Figures 12.4 and 12.5).
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Figure 12.4 The RevitaTM Duodenal Mucosal resurfacing technique uses a balloon catheter linked to
a computerized operating console (top left) to deliver a thermal injury to the duodenal mucosa. The catheter is placed endoscopically and under x-ray guidance into the duodenum (top right, 1). The mucosa is separated from the underlying submucosa by a local injection of saline (2) and the catheter balloon is inated with heated saline to produce a focal thermal injury, which leads to atrophy and regrowth of the mucosa (3). The balloon catheter is then removed and the mucosa inspected before withdrawal of the endoscope (4). The resultant ‘resurfacing’ of the mucosa is associated with changes in multiple metabolic parameters including improved glycaemic control and reduced liver fat.
110 Future developments in diabetes care
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Figure 12.5 The EndoBarrierTM duodeno-jejunal
barrier liner is inserted endoscopically into the duodenum, creating a barrier between nutri­ents passing from the stomach to duodenum which are prevented from reaching the duodenal mucosa.
BIBLIOGRAPHY
Bellin MD, Dunn TB. Transplant strategies for
type 1 diabetes: Whole pancreas, islet and porcine beta cell therapies. Diabetologia. 2020; 63: 2049–56. doi: 10.1007/s00125-
020-05184-7
Butler PC, Gale EA. Reversing type 1 diabetes
with stem cell-derived islets: A step closer to the dream? J Clin Invest. 2022 Feb 1; 132(3): e158305. doi: 10.1172/J CI158305
Carlsson LMS, Sjöholm K, Karlsson C, et al.
Long-term incidence of microvascular disease after bariatric surgery or usual care in patients with obesity, stratied by base­line glycaemic status: A post-hoc analysis of participants from the Swedish Obese Subjects study. Lancet Diabetes Endocrinol. 2017 Apr; 5(4): 271–9. doi: 10.1016/S2213-
8587(17)30061-X
Cummings DE, Rubino F. Metabolic surgery for
the treatment of type 2 diabetes in obese individuals. Diabetologia. 2018 Feb; 61(2): 257–64. doi: 10.1007/s00125-017-4513-y
Hering BJ, Ballou CM, Bellin MD, et al. Factors
associated with favourable 5-year outcomes
in Islet Transplant alone recipients with type 1 diabetes complicated by severe hypoglycaemia in the Collaborative Islet Transplant Registry. Diabetologia. 2023 Jan;66(1):163–173. doi: 10.1007/
s00125-022-05804-4
Mingrone G, van Baar AC, Devière J, et al.
Safety and efcacy of hydrothermal duo­denal mucosal resurfacing in patients with type 2 diabetes: The randomised, double­blind, sham-controlled, multicentre REVITA-2 feasibility trial. Gut. 2022 Feb; 71(2): 254–64. doi: 10.1136/gutjnl-2020-323608
Ruban A, Miras A, Glaysher MA, et al. Duodenal-
jejunal bypass liner for the management of type 2 diabetes mellitus and obesity: A multicenter randomized controlled trial. Annal Surg. 2022 March; 275(3): 440–47. doi: 10.1097/SLA.0000000000004980
Ryder REJ, Yadagiri M, Burbridge W,
et al. Duodenal-jejunal bypass liner for the treatment of type 2 diabetes and obesity: 3-year outcomes in the First National Health Service (NHS) EndoBarrier Service. Diabet Med. 2022 Jul; 39(7): e14827. doi: 10.1111/
dme.14827
Shapiro AMJ, Lakey JRT, Ryan EA, et al. Islet
transplantation in seven patients with type 1 diabetes mellitus using a glucocorticoid­free immunosuppressive regimen. N Engl J Med. 2000; 343: 230–23. doi: 10.1056/
NEJM200007273430401
Tatovic D, Dayan CM. Replacing insulin with
immunotherapy: Time for a paradigm change in type 1 diabetes. Diabet Med. 2021; 38: e14696. doi:10 .1111/d m e.14696
van Baar ACG, Meiring S, Holleman F, et al.
Alternative treatments for type 2 diabetes and associated metabolic diseases: Medical therapy or endoscopic duodenal mucosal remodelling? Gut. 2021 Nov; 70(11): 2196–204. doi: 10.1136/gutjnl-
2020-323931
Index
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A
ABBOS, 8 Abbott Freestyle Libre, 35 ABCC8-NDM, 16 Acanthosis nigricans, 90, 91 Acromegaly, 4, 19 Action to Control Cardiovascular
Risk in Diabetes (ACCORD) blood
pressure trial, 80 Acute complications of DM, 56–62 Addison’s disease, 20 Adenovirus, 17 Adhesive capsulitis, shoulder, 94 Aibercept, 67 Albumin-to-creatinine ratio (ACR),
69
Alcohol, 57, 61 α-glucosidase inhibitors, 44 Alprostadil (prostaglandin E1),
87–88, 89
American Diabetes Association
(ADA), 35, 72, 99
diagnostic criteria, 3, 26 etiologic classication, 5
GDM criteria, 102 Amitriptyline, 77 Amlodipine, 80 Amoxicillin-clavulanate, 85 Amputation, lower-limb, 77, 78 Amylin, 14 Anencephaly, 100 Angiotensin-converting enzyme
(ACE) inhibitor, 71–72, 80
Angiotensin receptor blockers
(ARBs), 71 Antibiotics, 85 Anticonvulsants, 77
Apomorphine, 87 Arthropathy
Charcot’s, 81, 82, 83 cheiroarthropathy, 94
Assessing the Eectiveness of
Communication erapy in the North West
(ACTNOW) study, 26 Atheromatous lesions, 77 Atorvastatin, 98 Automated insulin-delivery
systems, 102 Ava nal, 87 Azathioprine, 25 Azilsartan, 80
B
Background diabetic retinopathy,
63
Bacterial infection, skin, 80, 95 Bacteroides spp., 81 Balanitis, 95 Banting, Frederick, 1 Bariatric surgery, 107–108 Basal bolus insulin regimes, 101 Becaplermin, 86 Best, Charles H., 1 β-cells, pancreatic
autoimmune destruction, 7, 8 dysfunction, 14–15 monogenetic defects, 2, 9 stem cell generated, 106
viral infection, 8–9 Bevacizumab, 67 Bicarbonate, 60 Biguanides (metformin), 43 Bioengineered skin substitutes,
85
Blood glucose, 34–35
monitoring systems, 34–35, 39 plasma prole
‘glucose excursions’, 37, 38 insulin injections, 32, 34 non-diabetic, 33
stable control, 44 self-monitoring technique, 35 subcutaneous continuous
glucose monitoring system, 35
subcutaneously implanted
continuous monitoring
system, 35 Blood Pressure Control Study, 80 B lymphocytes, 9 Bovine serum albumin, 8 Brolucizumab, 67 Bullae, 92 Bullous lesions, 92
C
Calcium channel blockers, 80 Calorie restriction, 42 Canagliozin, 46, 61 Candesartan, 80 Candidiasis, 95 Captopril, 80 Carbohydrates, 33–34, 36, 42, 44 Cardiovascular disease (CVD), 53,
63, 73, 98
recurrent coronary heart disease
(CHD) events, 77 Carpal tunnel syndrome, 75, 76 CD4 T lymphocyte, 9 CD8 T lymphocyte, 9, 25 Centripetal obesity, 18 Cephalexin, 85
111
112 Index
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Cerebral oedema, 61 Charcot’s arthropathy, 81, 82, 83 Cheiroarthropathy, 94 Children and adolescents
childhood obesity, 19 childhood type 2 diabetes, 4 emotional problems, 51 hypoglycaemia, 51 insulin requirements, 51 macrosomic babies, 101
treatment, 51–52 Chlorthalidone, 80 Cholesterol, 98–99 Cholesterol Treatment Trialists, 98 Chronic complications of DM,
63–95
Chronic kidney disease (CKD), 70 Circinate exudative retinopathy, 65 Cirrhosis, 90 Classication of DM, 3–6 Clindamycin, 85 Closed-loop technology, 38 Collaborative Atorvastatin Diabetes
Study (CARDS), 98 Coma, 61 Coma, Hyperosmolar Nonketotic,
61
Continuous ambulatory peritoneal
dialysis (CAPD), 73 Continuous glucose monitoring
(CGM) systems, 38, 51, 101 Continuous glucose sensing
technology, 35 Continuous subcutaneous insulin
infusion (CSII), 35, 36 Coronary artery disease, 77 Counterpoint study, 27 Coxsackie B virus, 8, 9 C-peptide, 107 Creatinine level, 70, 71 Critical-care admission, 53 CTLA-4 gene, 8 Cushing’s syndrome, 4, 18, 19 Cyclosporine A, 25 Cystic brosis, 4, 22 Cytomegalovirus, 8, 17
D
Dapagliozin, 46, 61 Da Qing Study, China, 26
Denition of DM, 3 Dehydration, 59 Depression, 103 Dermopathy, 92 Dextrogel, 57 Diabetes burnout, 37 Diabetes Control and
Complications Trial (DCCT), USA, 3, 29, 63,
72
Diabetes Distress Scale, 103 Diabetes Education and Self-
Management for
Ongoing and Newly
Diagnosed diabetes
(DESMOND)
programme, 42 Diabetes insipidus, diabetes
mellitus, optic
atrophy and deafness
(DIDMOAD) syndrome,
64
Diabetes mellitus (DM), denition,
3
Diabetes Mellitus Insulin Glucose
infusion in Acute
Myocardial Infarction
(DIGAMI) study, 79 Diabetes Prevention Program,
USA, 26 Diabetic autonomic neuropathy, 76 Diabetic cheiroarthropathy, 94 Diabetic dermopathy., 92 Diabetic foot
digital arterial calcication in,
78
osteomyelitis in, 83
Diabetic foot ulceration, risk factors
for, 80 Diabetic impotence, 89 Diabetic ketoacidosis (DKA), 59–61 Diabetic macular oedema, 67 Diabetic maculopathy, 66 Diabetic neuropathy, 73 Diabetic retinopathy, 69 Diabetic right-third cranial nerve
pa lsy, 75 Diagnostic criteria of DM, 3, 4 Dialysis, 73 Diazoxide, 4 Dietary advice, 33
DIGAMI study, 79 Digital arterial calcication in
diabetic foot, 78
Dipeptidyl peptidase-4 (DPP-IV)
inhibitor, 44, 45 DIRECT study, 42 Distal gangrene, 78 Dose Adjustment for Normal
Eating (DAFNE)
program, 34 Down’s syndrome, 4, 17 DQB1 gene, 8 DREAM (Diabetes Reduction
Assessment with
Ramipril and
Rosiglitazone
Medication) study, 26 Driver and Vehicle Licencing
Agency (DVLA), 103–104 Driving licence, UK, 103 Drug treatment, for type 2 diabetes,
42
Dulaglutide, 45 Duodenal mucosa, 108 Duodenal Mucosal Resurfacing
(DMR) technique,
107–109
Dupuytren’s contracture, 94 Dyslipidaemia, 98–99
E
Edmonton protocol, 105, 106 Empagliozin, 46, 61 EMPA-REG study, 47 Enalapril, 80 EndoBarrier duodeno-jejunal
bypass liner, 108, 110 Endocrine cells, 14 End-stage diabetic retinopathy, 67 End-stage renal disease (ESRD), 70 Entrapment syndrome, 73, 75 Environmental factors
for children and adolescents, 51
viral infection, 8–10 Epstein–Barr virus, 8 Equality Act 2010, 104 Erectile dysfunction (ED), 76,
86–89, 103
causes, 86 hypogonadism, 86
Index 113
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treatment, 86 vasoactive drug
injection, 88 transurethral application,
88, 89
Eruptive xanthomata, 91, 92, 93 Erythromycin, 77 Escherichia coli, 31, 81 Euglycaemic diabetic ketoacidosis
(EDKA), 61 Euglycaemic ketoacidosis, 46 European Association for the Study
of Diabetes (EASD), 72 Exercise, 35
and insulin sensitivity, 36
Exogenous insulin administration,
54
Eye disorders
DIDMOAD syndrome, 64 laser photocoagulation, 65, 66,
67, 68, 69
maculopathy, 63, 66 normal fundus, 63 retinal detachment, 65, 69 retinopathy, 63–69 thromboneovascular glaucoma,
67
triamcinolone therapy, 68 vitreous haemorrhage, 65, 66, 69
Ezetimibe, 99
F
Faricimab, 67 Fasting plasma glucose (FPG),
3, 14
Federal Aviation Administration,
104
Felodipine, 80 Fenobrate, 99 Fenobrate Intervention and Event
Lowering in Diabetes
(FIELD) trial, 99 Fibrates, 99 Fibrocalculous pancreatopathy, 4 15-15 Rule, 57, 58 Finerenone in Reducing Kidney
Failure and Disease
Progression in Diabetic
Kidney Disease
(FIDELIO-DKD) trial, 72
Finnish Diabetes Prevention Study,
26
Finnish study, 73 Fluid replacement, 60 Food and Drug Administration
(FDA), 72, 106–107 Foot disorders
burn injuries, 81 callus, 81 Charcot’s arthropathy, 81, 82, 83 deep infection, 82 digital arterial calcication, 78 gangrene, 78, osteomyelitis, 82, 83, 84, 85 treatment, 85, 86 ulcer, 82, 85
weight-bearing reduction, 85 Fosinopril, 80 Free fatty acids (FFAs), 14, 15, 90 Freestyle Libre 2 ash glucose
Frozen shoulder, 94 Future developments
β-cells, stem cell generated, 106
insulin pumps, 106
islet cell transplantation, 105
pancreatic transplantation, 105
85
monitoring system, 36
G
Gabapentin, 77 Gastric inhibitory polypeptide
(GIP), 44, 90
Gastric Neurostimulator (GES)
system, 77 GCK-MODY, 16 Genes
DQB1, 8 glucokinase, 16 INS (insulin gene), 16
Genetic loci
IDDM2, 8
Genome-wide association studies
(GWA S), 8, 24 Geographic variation of DM, 1–2 Gestational diabetes mellitus
(GDM), 5, 26, 102
O’Sullivan–Mahan criteria
(USA), 5
WHO criteria, 5, see also
Pregnancy
Glitazones, 26, 44 Glomerulopathy, 70, 71 GLP-1 receptor agonists, 52 Glucagon, 58 Glucagon-like peptide-1 (GLP-1),
14, 44, 45, 54, 90
Glucocorticoids, 4 Glucogel, 57 Gluconeogenesis, 7, 58 Glucose
metabolism, brain, 57 tolerance, impaired, 3, 4, 22,
see also Blood glucose
Glucotoxicity, 14 Glutamic acid decarboxylase
(GAD) antibodies, Gluten, 8 Glycaemic control, 34, 100 Glycogenolysis, 7, 58 Glycolysis, 59 Glycosuria, 59 Granuloma annulare, 93 GvokeHypoPen, 58
9
H
Haemochromatosis, 4, 20, 22, 23 Health-care costs, 3 Heart Outcomes Prevention
Evaluation (HOPE) study,
80
Heart Protection Study (HPS), 98 Hemoglobin (HbA Hepatic gluconeogenesis, 59 Hepatic nuclear factors (HNFs), 5 Hepatic portal vein, isolated islet
administration, 106 Hereditary haemochromatosis, 20 Heterozygous mutations, 16 High-density lipoprotein (HDL),
98
HNF1A-MODY, 16 Human leukocyte antigen (HLA), 8
HLA antigens, 8 Human proinsulin, 30 Hyalin deposition, 71 Hydroxymethylglutaryl-coenzyme
A reductase inhibitor, 98 Hyperbaric oxygen, 86 Hyperglycaemia, 14, 49, 53, 59, 79
in pregnancy, 100
) targets, 33
1c
114 Index
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Hyperglycaemia-driven osmotic
diuresis, 61
Hyperglycaemic Hyperosmolar
Nonketotic Coma (HONK), 61
Hyperinsulinaemia, 79
fetal, 101 Hyperlipidaemia, 49, 98–99 Hyperosmolar Hyperglycaemic
Nonketotic Syndrome (HHNS), 61
Hyperosmolar Hyperglycaemic
State (HHS), 61–62 Hyperosmolarity, 59 Hyperosmolar Nonketotic Coma,
61
Hypertension, 71, 72–73, 79–80 Hypertriglyceridaemia, 98 Hypoglycaemia, 31, 56, 58, 103, 106
brain glucose metabolism, 57 causes of, 57 children and adolescents, 51 hypoglycaemia-induced cardiac
dysrhythmia, 57
neonatal, 100 self-treatment, 57 symptoms, 57
I
IDDM2, 8 Impaired fasting glucose (IFG), 2, 3 Impaired glucose tolerance (IGT),
2, 3, 14, 19, 22, 26
Incretin-based treatments, 44–45 Indapamide, 80 Inpatient management of diabetes,
53
Insulin, 30, 31, 47
biosynthesis, 31 biphasic response to glucose, 15 crystals, 30 deciency, biochemical
consequences, 10
discovery of, 1–3 impaired secretion, 14 injection technique, 32 lipid hypertrophy, 34 lipoatrophy, 33, 34 longer-acting, 47 pens, 32
plasma prole, non-diabetic, 33 proinsulin, protein sequence, 30 rapid-acting, 47 requirements, children and
adolescents, 51
resistance, 2–3, 14–16
Insulin analogs and formulations,
30
insulin aspart, 31 insulin detemir, 31 insulin glargine, 31, 33 insulin lispro, 31 isophane, 31 NPH (isophane), 31 porcine insulin, 31
Insulin autoantibodies (IAA), 9 Insulin crystals, 30 Insulin deciency, 10 Insulin degludec (Tresiba), 31 Insulin-dependent diabetes
mellitus (IDDM),
see Type 1 diabetes
Insulin detemir (Levemir), 31 Insulin independence, duration
of, 106
Insulin infusion rate, 60 Insulin injection technique, 32 Insulin-like growth factor (IGF)-1
receptors, 90
Insulin lipoatrophy, 33 Insulinoma, 12 Insulin pump, 102 Insulin-pump therapy, 51, 103 Insulin regimes
basal-bolus, 36 continuous subcutaneous
insulin infusion (CSII),
35
twice-daily, 31
Insulin requirements in children
with T1DM, 51
Insulin resistance, 79 Insulin resistance syndrome, 2–3,
6, 14–16
denition, 14
Insulin therapy, patients on, 54 Insulin-treated diabetes, 54 Insulitis, 9, 12 Insurance issues, 104 Interferon (IFN)γ, 9 Interleukin (IL)-2, 9
Intermediate-density lipoprotein
(IDL), 98
Intraretinal microvascular
abnormalities (IRMA), 64 Intravitreal triamcinolone, 67 Irbesartan, 80 Islet aer kidney (IAK)
transplantation, 106 Islet amyloid polypeptide (IAPP),
14
Islet cell antibodies (ICA), 9, 13 Islet cell transplantation, 105, 106 Islet of Langerhans, 9, 30
Coxsackie B viral infection
(LM), 9
cystic brosis, pancreas (LM),
22
glucagon immunostained, 11 insulin immunostained, 11 insulin storage granules, 11 insulitis hyperexpression, 14 normal pancreas, 11 somatostatin immunostained,
11
type 1 DM
β-cells, 11, 12
inltrate, 12
lymphocyte inltration, 12
type 2 DM
amyloid deposition, 15
Isradipine, 80 IV insulin, 55
K
KCN J11-NDM, 16 Ketoacidosis, 46, 53, 59–62
causes of death, 60 Ketoacids, 59 Ketones, 53, 59, 60 Ketosis, in surgery, 54 ‘Ketosis-prone’ T2DM, 59 Klinefelter’s syndrome, 2, 4, 17, 21
L
Lactic acidosis, 43 Laser photocoagulation, 65, 66, 67,
68, 69
Latent Autoimmune Diabetes in
Adulthood (LADA), 4
Index 115
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Late-onset diabetes mellitus, 2
immune-mediated type 1, 2 Levooxacin, 85 Lifestyle change, 25–26 Linezolid, 85 Lipid disorders, 98 Lipid hypertrophy, 34 Lipoatrophy, 33, 34 Lipohypertrophy, 32, 34 Lipolysis, 59 Lipoprotein abnormalities in
T2DM, 98
Lipoprotein A (Lp(a))
concentrations, 98 Liraglutide, 44 Liraglutide Eect and Action in
Diabetes: Evaluation of
Cardiovascular Outcome
Results (LEADER) study,
47
Lisinopril, 80 Liver
cirrhosis, 90 glucose output, 27 glucose production, 14, 15 hepatic nuclear factors (HNFs), 5 hepatic portal vein, isolated islet
administration, 106 Losartan, 80 Low-density lipoprotein (LDL),
98–99
M
Macrophages, 9 Macrosomia, 100 Macrosomic babies, 101 Maculopathy, 63, 66 Maggot debridement, ulcer, 86 Major histocompatibility complex
(MHC), 8
antigens, 9 Male excess, type 1, 6 Malignant otitis externa, 95 Massive eruptive xanthomata, 93 Maturity onset diabetes, 41 Maturity-onset diabetes of the
young (MODY), 4, 16 Mealtime insulin, 36, 102 Medicated Urethral System for
Erection (MUSE), 88
Medtronic 780 G, 37 Meglitinides, 44 Me proliferator-activated
receptorgamma (PPARγ),
44
Meropenem, 85 Metabolic syndrome, see Insulin
resistance syndrome
Metformin, 41, 43, 44, 47, 72, 90 Metoclopramide, 77 Microalbuminuria, 71 Migratory necrolytic erythema, 93 MiniMed continuous glucose
monitoring system, 35 Minocycline, Mitochondrial diabetes, 16–17 Monitoring systems, blood glucose,
Monoclonal antibodies, 25 Monogenic diabetes
causes of, 17 subtypes, 16–18
Multiple Risk Factor Intervention
Mumps, 8, 9, 17 Myocardial infarction and
Myotonic dystrophy, 22 MySugarWatch glucose sensor
85
34–35, 37
Trial (MRFIT), 77
infection, 60
system, 37
N
National Diabetes Inpatient Audit
(NaDIA), 53 NAVIGATOR study, 26 Necrobiosis, 91 Necrobiosis lipoidica diabeticorum,
91–92
Neovascular glaucoma, 67 Nephropathy, 53, 69–73, 79, 80, 103 Neuropathic ulcer, 82 Neuropathy, 71, 81, 103
acute, 75 autonomic, 73, 76–77 chronic insidious sensory,
74–75
mononeuropathy, 75 pathogenesis, 74 prevalence, 74 proximal motor, 75–76
third cranial nerve palsy, 75 treatment, 81
ulnar, 75 Niacin, 99 Nitrosamines, 8 Non-alcoholic fatty liver disease
(NA FLD), 90
Non-alcoholic steatohepatitis
(NASH), 90
Non-insulin-dependent diabetes
mellitus (NIDDM),
see Type 2 diabetes
Non-insulin treatment, patients
on, 54
O
Obesity
body mass index (BMI), 18
childhood, 19
energy expenditure, 20–21
epidemic, 18–24
food consumption, 20
food intake, 19–20
genetics and, 21–24
sequelae of, 24 Obesity epidemic, 19 Obesity pandemic, 19 Olmesartan, 80 Omnipod, 37 Oral glucose tolerance test (OGTT),
3
Osmotic diuresis, 59 Osteomyelitis, 82,
foot, 85
Osteomyelitis in diabetic foot,
83
Osteoporosis, 83 O’Sullivan–Mahan criteria
(USA), 5 Outcome Reduction with Initial
Glargine (ORIGIN) study,
26
83, 84, 85
P
Pancreas, see also β-cells; Islet of
Langerhans
calcication, 23 ca ncer, 4, 24 pancreatic duct, normal, 23