Antitumoral Agent-Induced Constipation: A Systematic Review
Abstract
:Simple Summary
Abstract
1. Introduction
2. Methods
2.1. Design and Data Sources
2.2. Eligibility Criteria
2.3. Search Strategy and Study Selection
2.4. Data Extraction, Data Analysis, and Synthesis of Findings
3. Results
3.1. The Characteristics of Included Studies
3.2. Prevalence
3.3. Etiology
3.4. Treatment
4. Discussion
4.1. Prevalence
4.2. Etiology
4.3. Treatment
Author, Country, Year | Study Design and Methodology | Antitumoral Treatment | Diagnosis (Cancer Type) | Number of Patients Included | Prevalence of Constipation (%) and Comments |
---|---|---|---|---|---|
Buckinham et al., UK, 1997 [14] | Descriptive study | Carboplatin | Ovarian cancer | 11 | 69.08%. |
Sitzia et al., UK, 1997 [45] | Self-report questionnaire | Cyclophosphamide, doxorubicin, vincristine, and prednisolone | Non-Hodgkin’s lymphoma | 19 | 47.48% |
Williams et al., USA, 2006 [30] | Descriptive study | Chemotherapy | Leukemia, lymphomas, or breast cancer | 26 | Grade 1: 15.4% Grade 2: 26.9% Grade 3: 7.7% Grade 4: 7.7% |
Janz et al., USA, 2007 [31] | Survey | Chemotherapy and hormonotherapy | Stage 0–II breast cancer | 1372 | 30% |
Widakowich et al., Belgium, 2007 [28] | Narrative review | Lapatinib in combination with paclitaxel | All cancers | Not mentioned | 33% |
Henry et al., USA, 2008 [77] | Cross-sectional survey | Chemotherapy and/or radiotherapy | All cancers | 814 | 45% |
Smith et al., USA, 2008 [11] | Narrative review | Lenalidomide, thalidomide, and bortezomib | Multiple myeloma | 779 | Lenalidomide: all grades, 39%; grade 3: 2% Thalidomide: all grades, 55%; grade 3: 8% Bortezomib: all grades, 42%; grade 3: 2% |
Yamagishi et al., Japan, 2009 [1] | Cross sectional study | Chemotherapy | All cancers | 462 | Total: 16%; moderate: 11%; severe: 4.9% |
Gay et al., Italy, 2010 [28] | Narrative review | Thalidomide, melphalan, prednisone, and bortezomib | Multiple myeloma | Not mentioned | Grades 3–4: 4–11% |
Boussios et al., Greece, 2012 [22] | Narrative literature review | Oxaliplatin, imatinib, bortezomib, temsirolimus, sunitinib-sorafenib, and bevacizumab | All cancers | Not mentioned | Oxaliplatin: 32% Imatinib: 4–13% Bortezomib: 43% Temsirolimus: 20% Sunitinib–sorafenib: 34% Bevacizumab: 40% |
Grenon et al., USA, 2013 [23] | Narrative review | Bevacizumab, fluorouracil, oxaliplatin, irinotecan, and aflibercept | Metastatic colorectal cancer | Not mentioned | Bevacizumab + irinotecan + fluorouracil: 4% Bevacizumab + 5-fluorouracil, oxaliplatin: 4% Aflibercept + 5-fluorouracil + irinotecan: 0.8% |
Petterson et al., Sweden, 2013 [24] | Cross-sectional study | Capecitabine, oxaliplatin, folinic acid, bevacizumab, and irinotecan | Colorectal cancer | 104 | 20% |
Sanigaram et al., India, 2014 [32] | Prospective observational study | Chemotherapy | Breast cancer, cervical cancer and ovarian cancer | 100 | 29% |
Montemurro et al., Italy, 2015 [15] | Prospective, single-arm study | Adjuvant chemotherapy outside of a clinical trial | Breast cancer | 604 | 52% |
Rashid et al., USA, 2015 [33] | Retrospective cohort study | First-line treatment | Breast cancer | 1682 | 14.2% |
Saini et al., India, 2015 [39] | Observational prospective study | Chemotherapy | Breast cancer + lung cancer | 174 (101 breast cancer + 73 lung cancer) | 5-Fluorouracil + doxorubicin + cyclophosphamide: 6% 5-Fluorouracil + epirubicin + cyclophosphamide 1% Docetaxel 1% Paclitaxel 1% |
Tachi et al., Japan, 2015 [34] | Survey | Chemotherapy | Breast cancer | 48 | Grade 1: 25.5% Grade 2: 6.4% Grade 3: 2.1% |
Yeogh et al., Singapore, 2015 [78] | Retrospective study | Chemotherapy | All cancers | 294 | 6.9% |
Chopra et al., India, 2016 [79] | Prospective observational survey | Chemotherapy | All cancers | 1008 | 20% |
Colosia et al., USA, 2016 [48] | Systematic literature review | Pazopanib or another targeted cancer agent or cytotoxic chemotherapy | Metastatic soft tissue sarcoma | 1013 | Trabectidine weekly: Grade 1/2: 32% Grade 3/4: 2% |
Wagland et al., UK, 2016 [69] | Survey | Chemotherapy | All cancers | 363 | 59% Mild: 30% Moderate: 20% Severe: 9% |
Daud et al., USA, 2017 [47] | Narrative review | Agents targeting the MAPK pathway | Metastatic melanoma | Not mentioned | Dabrafenib: any grade, 14%; grade 3/4: 2% Vemurafenib: any grade, 14%; grade 3/4: 2% Trametinib: any grade, 14%; grade 3/4: 0% Dabrafenib + trametinib: any grade, 22%; grade 3/4: 0% |
Delforge et al., Austria, 2017 [46] | Case series | Proteasome inhibitors, immunomodulatory drugs, and monoclonal antibodies | Multiple myeloma | Not mentioned | Bortezomib iv: 2%; bortezomib sc: 1–2% Carfilzomib: 1% Ixazomib: <1% Thalidomide: 10% Lenalidomide: 2–3% Pomalidomide: 2% Grade 3/4: 2% |
HSU et al., Taiwan, 2017 [20] | Survey | Carboplatin + taxol/topotecan or gemcitabine | Gynecological cancer patients | 89 | 27.8% |
Pearce et al., Australia, 2017 [35] | Prospective cohort study | Chemotherapy | Breast, lung, and colorectal cancers | 449 | 74% (grade 1: 40%; grade 2: 25%; grade 3: 7%; grade 4: 2%) |
Stansborough et al., Australia, 2017 [80] | Narrative review | Proteasome inhibitors | All cancers | Not mentioned | 36.8% |
Wahlang et al., India, 2017 [81] | Prospective observational study | Chemotherapy | All cancers | 119 | 12.26% |
Wong et al., USA, 2017 [16] | Cross-sectional study | Chemotherapy | Lung cancer | 145 | 50.3% |
Yang et al., China, 2017 [82] | Systematic review | Vandetanib | All cancers | 6382 | 17% |
Irwin et al., USA, 2018. [40] | Retrospective longitudinal observational cohort study | Ipilimumab, nivolumab, or ipilimumab/nivolumab combination therapy | Metastatic melanoma and lung cancer | 2545 | Lung cancer: ipilimumab: 19.1%; Nivolumab: 13.9%; combination therapy: 16.1% Melanoma: ipilimumab: 15%; nivolumab: 14.3%; combination therapy: 12.1% |
Luo et al., China, 2018 [41] | Meta-analysis of randomized controlled trials | PD-1/PD-L1 inhibitors | Non-small-cell lung cancer | 4413 | PD-1, PDL-1 inhibitors: 6.34% Control (chemotherapy): 8.08% |
Muthu et al., India, 2018 [42] | Prospective observational study | Chemotherapy | Lung cancer | 112 | 20.1% |
Lagrange et al., France, 2019 [12] | Single-left, randomized, double-blind, parallel, controlled clinical study | FEC 100-Taxotere chemotherapy | Breast cancer | 94 | Experimental group: 47.1% |
Nyrop et al., USA, 2019 [17] | Incidence study | Chemotherapy | Breast cancer | 152 | Doxorubicin/cyclophosphamide plus paclitaxel: 47% Docetaxel/cyclophosphamide: 30% Docetaxel/carboplatin: 25% Doxorubicin/cyclophosphamide plus paclitaxel/carboplatin: 72% |
Abdelhafeez et al., Egypt, 2020 [83] | Systematic review | Combination immune checkpoint inhibitors versus monotherapy | All cancer | 2544 | RR of constipation with combination: 8.4 RR all grades of adverse event; 1.48 high grade of adverse event. |
Ataseven et al., Germany, 2020 [36] | Prospective interview study | Chemotherapy and targeted therapy with antibodies | Ovarian cancer and breast cancer | 150 | 23% |
Cheson et al., USA, 2020 [29] | Narrative review | Combination of rituximab and lenalidomide | Follicular and low-grade non-Hodgkin’s lymphoma | Not mentioned | Range: 26%, 27%, 35%, 45% Grade 3/4: 2% |
Irfan et al., Pakistan, 2020 [26] | Retrospective study | Procarbazine, lomustine, and vincristine | Grade 2 oligodendroglioma, oligoastrocytoma, or astrocytoma | 63 | 9.5% |
Kawada et al., Japan, 2020 [27] | Retrospective cohort study | Vinca alkaloid | Acute lymphoblastic leukemia and malignant lymphoma | 203 | 25% |
Martin et al., USA, 2020 [44] | Qualitative research (interview) | Chemotherapy | Ovarian cancer | 64 | Patients from Europe: 4% Patients from USA: 3% |
Saragioto et al., Brazil, 2020 [84] | Retrospective longitudinal study | Chemotherapy | All cancers | 187 | 11.58% |
Singh et al., USA, 2020 [37] | Survey | Chemotherapy | Breast, gastrointestinal, gynecological, and lung cancers | 1251 | 43.2% |
Thenmozhi et al., India, 2020 [85] | Cross-sectional study | Chemotherapy | All cancers | 50 | 30% |
Zorn et al., Germany, 2020 [86] | Cross-over trial | Chemotherapy | All cancers | 30 | 8.8% |
Chen et al., China, 2021 [21] | Cross-sectional study | Platinum | Lung cancer | 100 | 41% Cisplatin: 26.8% Nedaplatin: 56.1% Carboplatin 17.1% |
Crivelli et al., Italy, 2021 [68] | Survey | Chemotherapy | All cancer | 283 | In 2006–2007: grade 1: 48.6%; grade 2: 33.3%; grade 3: 2.8% In 2013–2014: grade 1: 40.1%; grade 2: 16.6%; grade 3: 0.5% |
Huo et al., China, 2021 [87] | Meta-analysis | PD-1 inhibitors | Non-small-cell lung cancer | 3716 | 2.8% |
Mao et al., China, 2021 [18] | Randomized controlled trial | Chemotherapy | Lung cancer | 122 | Time point 1: Intervention group, 59%; control group, 55.7% (p = 0.71) Time point 2: Intervention group, 47.5%; control group, 65.6% (p = 0.045) Time point 3: Intervention group, 34.4%; control group, 68.9% (p = 0.000) |
Duarte et al., Brazil, 2021 [88] | Diagnostic accuracy study | Chemotherapy | All cancers | 240 | 86.6% |
Orsi et al., Italy, 2021 [25] | Retrospective multileft study | Nab-paclitaxel plus gemcitabine; folinic acid, fluorouracil, irinotecan, and oxaliplatin cisplatin; nab-paclitaxel, capecitabine, and gemcitabine | Patients with cancer and documented germline pathogenic variants of BRCA1-2 | 85 | Nab-paclitaxel plus gemcitabine: 11% grade 1–2; 0% grade 3; 0% grade 4 Folinic acid, fluorouracil, irinotecan, and oxaliplatin: 20% grades 1–2; 0% grade 3; 0% grade 4 Cisplatin, nab-paclitaxel, capecitabine, and gemcitabine: 3% grades 1–2; 0% grade 3; 0% grade 4 |
Yu et al., China, 2021 [43] | Observational study | Chemotherapy | Lung cancer | 200 | 2.5% |
Nguyen et al., Vietnam, 2022 [38] | Prospective study | Chemotherapy | Breast cancer | 396 | 1.5% |
Pehlivan et al., Turkey, 2022 [89] | Cross-sectional study | Chemotherapy | All cancers | 252 | 31.7% |
Huang et al., China, 2023 [13] | Randomized, single-blind, placebo-controlled prospective study | Capecitabine + oxaliplatin | All cancers | 100 | Patients under treatment with probiotic: 4% Patients under treatment with placebo: 28% |
Author, Country, Year | Study Design and Methodology | Antitumoral Treatment | Diagnosis (Cancer Type) | Number of Patients Included | Main Findings on Pathophysiology |
---|---|---|---|---|---|
Bhatia et al., USA, 2009 [49] | Case report | Ipilimumab | Melanoma | 1 | Biopsies of the colonic wall revealed prominent inflammatory infiltrates of mononuclear lymphocytes associated with the myenteric nervous system, consistent with immune-mediated inflammatory effects of ipililumab. |
Leveque et al., France, 2009 [50] | Case report | Vincristine | Burkitt lymphoma | 1 | Ritonavir and lopinavir might have delayed vincristine elimination because CYP3A5 isoenzyme and glycoprotein P inhibition are involved in vincritine transportation and metabolism. |
Holma et al., Finland, 2013 [51] | Randomized controlled trial | 5-Fluorouracil | Colorectal cancer | 143 | Methanogenesis was a significant explaining factor with inverse association with diarrhea and positive association with constipation. |
Stojanovsk et al., Australia, 2014 [52] | Narrative review | Not mentioned | All cancers | Not mentioned | Platinum-based chemotherapeutic agents could accumulate and enhance immune responses, and changes in neuroimmune interactions could possibly impact the gastrointestinal innervation and consequently cause long-term gut dysfunctions. Retention of reactive platinum compounds that are still capable of inducing DNA adducts can be found up to 20 years post-treatment with platinum-based agents. |
McQuade et al., Australia, 2016 [2] | Narrative review | Not mentioned | All cancers | Not mentioned | Loss of enteric neurons following administration of cisplatin and oxaliplatin has been correlated with an increase in a population of the myenteric neurons expressing neuronal nitric oxide synthase. Studies emphasize the importance of enteric neuronal integrity in gastrointestinal function whilst suggesting neuroprotection as a potential therapeutic pathway for the treatment of chemotherapy-induced gastrointestinal disorders. |
Escalante et al., Australia, 2017 [53] | Narrative review | Chemotherapy | All cancers | Not mentioned | Constipation could be due to neuronal loss limiting the innervation of the internal and external muscles of the gut, thus impairing normal colonic motor function, leading to constipation. |
Author, Country, Year | Study Design and Methodology | Antitumoral Treatment | Diagnosis (Cancer Type) | Number of Patients Included | Content and Main Findings | Quality of Evidence (Grade) |
---|---|---|---|---|---|---|
Carr et al., UK, 2008 [54] | Narrative review | Chemotherapy | All cancers | Not mentioned | Neostigime may have a role in the management of ileus. | Very low |
Davila et al., USA, 2008 [55] | Narrative review | Chemotherapy | All cancers | Not mentioned | Laxatives can be used in the initial treatment of constipation. Stimulant laxatives (bisacodyl/senna) increase intestinal motor activity. If not effective, osmotic agents (lactulose/sorbitol) can be used. The use of drugs to improve colonic transit has been disappointing. Metoclopramide is ineffective. Tegaserod was removed from the market because of cardiovascular adverse effects. | Very low |
Smith et al., USA, 2008 [11] | Narrative review | Lenalidomide, thalidomide, and bortezomib | Multiple myeloma | Not mentioned | Constipation Grade 1: Increase fluid intake + increase fiber intake + provide comfort, privacy + increase physical activity. Consider bowel regimen when constipating medications are prescribed (docusate 2–3 tablets per day, senna not to exceed 8 tablets a day). Constipation Grade 2: All of the grade 1 recommendations plus nutritional consultation + consider laxatives and stimulants: magnesium sulfate 15 g PO daily, magnesium citrate 200 mL PO daily, lactulose 15–60 mL PO daily, bisacodyl 5–20 mg PO at night or 10–20 mg rectally after a meal. Constipation Grade 3: All of the grade 2 recommendations plus initiate bowel regimen + assess for bowel obstruction + consider IV hydration. If no response, consider referral to a gastroenterologist. Grade 4: All of the grade 3 recommendations plus hospitalization + rule out perforation. | Very low |
Shin et al., Korea, 2016 [61] | Randomized controlled trial | Chemotherapy | Breast cancer | 52 | Patients treated with auricular acupressure experimented lower scores of constipations compared to usual care (p < 0.001). Patient Assessment of Constipation–Quality of Life scores of the experimental group were significantly lower compared with the control group (p < 0.001). | High |
Zou et al., China, 2016 [59] | Randomized controlled trial | Chemotherapy | Leukemia | 120 (57 group control + 63 group intervention) | Patients that eat sweet potato (200 g/day) significantly improved some items regarding defecation in Rome III criteria compared to routine nursing methods. | High |
Fox et al., Ireland, 2017 [56] | Scoping review | Chemotherapy | All cancers | 25 in Chou et al. (1 of the 27 articles from the review) | High-fiber diet, increase fluid intake (eight 8-ounce glasses of fluid/day), exercise, laxatives. Benefit not mentioned (it is a recommendation). | Moderate |
Hayashi et al., Japan, 2017 [60] | Retrospective study | Vincristine-based chemotherapy regimen | Non-Hodgkin’s lymphoma | 211 | The incidence of constipation did not significantly differ between patients who received and did not receive prophylactic laxatives (30.2% versus 37.6%, respectively, p = 0.269). Magnesium oxide at doses of <2000 mg/d was not significantly effective for prevention of constipation, although the compound completely inhibited the incidence of constipation at doses of >2000 mg/d. | Low |
Paner et al., USA, 2018 [63] | Narrative review | Bortezomib, lenalidomide, and dexamethasone | Multiple myeloma | Not mentioned | The authors recommend adding stool softeners and motility stimulant to relieve constipation if increasing oral fluid intake and dietary fiber (20–25 g/day) are insufficient. | Very low |
Lagrange A et al., France, 2019 [12] | Randomized controlled trial | FEC 100-Taxotere chemotherapy | Breast cancer | 94 | Osteopath (experimental group) for a 15 min session. A 15 min session of osteopath did not show significant differences against control group concerning the rate of constipation (p = 0.204) according to clinician-reported side effects, but patients reported that the impact of constipation on quality of life was significantly lower in experimental group (p = 0.036). | High |
Masoumi et al., Iran, 2019 [6] | Case report | Vincristine | Acute lymphoblastic leukemia | 1 | Metoclopramide can be considered for ileus treatment after ruling out the possibility of bowel obstruction. Prophylactic stool softeners should be administered to all patients undergoing chemotherapy with vincristine to prevent gastrointestinal motility disorders. | Very low |
Kawada et al., Japan, 2020 [27] | Retrospective study | Vinca alkaloid | Acute lymphoblastic leukemia and malignant lymphoma | 203 | Patients treated with lubiprostone were significantly less likely to experience intractable constipation than those treated with stimulant laxatives (10% vs. 34%, p = 0.002). | Low |
Chan et al., China, 2021 [62] | Systematic review | Chemotherapy | Breast cancer | 1189 | Acupuncture (penetrating needles on the acupoints) showed beneficial effects on constipation. | High |
Mao et al., China, 2021 [18] | Randomized controlled trial | Chemotherapy | Lung cancer | 122 | Acupoint stimulation. Transcutaneous acupoint electric stimulation and gastric electrical stimulation were performed for 25 min daily for 14 days. Prevalence rates of constipation: 1 day before chemotherapy: Intervention group, 59%; control group, 55.7% (p = 0.71). 14 days after chemotherapy: Intervention group, 47.5%; control group, 65.6% (p = 0.045). 28 days after chemotherapy: Intervention group, 34.4%; control group, 68.9% (p = 0.000). At time points 2 and 3, constipation in the stimulation group had statistically significantly improved compared with the control group (p < 0.05). | High |
Mao et al., China, 2021 [64] | Randomized controlled trial | Chemotherapy | Non-small-cell lung cancer | 60 | Transcutaneous acupoint electrical stimulation (TAES) was effective for alleviating constipation. TAES was provided daily for 30 min for 4 weeks, six times per week. BSFS and the CAS scores were used. Both scores for the experimental group were significantly higher than those for the control group (p = 0.004 and p < 0.001). | High |
Garczyk et al., Poland, 2022 [57] | Systematic review | Chemotherapy | All cancers | 2619 | Two studies showed improvement of constipation with probiotics. Decrease in the duration of constipation and less severe ailments were noted using compositions containing L. acidophilus, B. infantis, and L. rhamnosus. | High |
Yao et al., China, 2022 [58] | Systematic review | Chemotherapy | All cancers | 2990 | Compared to the controls, moxibustion significantly reduced the incidences of constipation (RR 0.59, 95% CI 0.44–0.78). Quality of life scores significantly improved after moxibustion. All adverse events related to moxibustion were mild. | High |
Huang et al., China, 2023 [13] | Randomized controlled trial | Capecitabine + oxaliplatin regimen | Colorectal cancer | 100 | Treatment with probiotics proved to be significatively effective in the treatment of constipation when compared to placebo (probiotics: 4% constipation; placebo: 28% constipation (p = 0.019)). | High |
5. Conclusions
The Strengths and Limitations of This Study
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Concept | Query Number | Query Content |
---|---|---|
#10 | #3 AND #6 AND #9 AND | |
#9 | #7 OR #8 | |
Treatment | #8 | “Antineoplastic Agents” [Mesh] |
#7 | “Anticancer Agent*” OR “Antineoplastic Drug*” OR “Antitumor Drug*” OR Antineoplastic* OR Chemotherapy* OR Immunotherapy [Mesh]* OR Hormonotherapy* | |
#6 | #5 NOT #4 | |
Problem | #5 | Constipation [MESH] |
#4 | Opioid-Induced Constipation [MESH] | |
#3 | #1 OR #2 | |
Population | #2 | Neoplasms [MESH] |
#1 | Tumor* OR Tumor* OR Malign* Or Cancer* OR Neoplasms* OR Carcinoma* OR Oncol* |
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Calsina-Berna, A.; González-Barboteo, J.; Llorens-Torromé, S.; Julià-Torras, J. Antitumoral Agent-Induced Constipation: A Systematic Review. Cancers 2024, 16, 99. https://doi.org/10.3390/cancers16010099
Calsina-Berna A, González-Barboteo J, Llorens-Torromé S, Julià-Torras J. Antitumoral Agent-Induced Constipation: A Systematic Review. Cancers. 2024; 16(1):99. https://doi.org/10.3390/cancers16010099
Chicago/Turabian StyleCalsina-Berna, Agnès, Jesús González-Barboteo, Silvia Llorens-Torromé, and Joaquim Julià-Torras. 2024. "Antitumoral Agent-Induced Constipation: A Systematic Review" Cancers 16, no. 1: 99. https://doi.org/10.3390/cancers16010099
APA StyleCalsina-Berna, A., González-Barboteo, J., Llorens-Torromé, S., & Julià-Torras, J. (2024). Antitumoral Agent-Induced Constipation: A Systematic Review. Cancers, 16(1), 99. https://doi.org/10.3390/cancers16010099