Background & Aims

In 2020, the worldwide incidence of cancer was 19.3 million cases and is expected to increase by 47% in the next 20 years.Cancer pain associated with tumors or treatment negatively impacts patients’ quality of life. Cancer pain can occur during all disease periods, being more debilitating when bone metastases occur. Notably, anticancer therapy-induced pain compromises antineoplastic treatment. Thus, analgesics have a significant impact on the well-being of patients with cancer, but an essential and less-studied issue is their effect on disease progression. In addition to the conventional adverse effects, it is valid and prudent to consider evaluating pro-or antitumor activity for new analgesic candidates against pain caused by cancer and its therapy.Kinins and their B1 and B2 receptors are involved in different pain types, including those induced by tumors and anticancer therapy.Moreover, kinins stimulate the proliferation of various tumors while having controversial effect on others.

Methods

This is a review study on the role of kinins in the proliferation of different tumors, analyzing whether it is worth investigating their role in the pain caused by these tumors and their therapy.

Results

Kinins contribute to breast cancer proliferation and pain induced by breast tumor and their therapy, besides other adverse effects of anticancer therapy (nephrotoxicity, cardiotoxicity).Thus, advancing studies on kinins’role in breast cancer proliferation and pain caused by it and its therapy is essential.Kinins are a growth factor for lung and prostate tumors, which frequently metastasize to bones and cause severe pain.Thus, it is valid to investigate the kinins’role in pain caused by these tumors and their therapy.Given the controversial pro-and antitumor studies of kinins in melanoma, it is necessary to clarify this question before advancing the kinins‘role in the pain caused by melanoma and its therapy.Also, it is essential to clarify the kinins‘role, especially the B1 receptor, in the pain and proliferation of primary bone cancer.Other therapies (surgy, radiation, bortezomib, thalidomide) and tumors (gastric, renal, bladder) cause pain whose involvement of kinin could be explored.

Conclusions

A significant clinical challenge is longer-term pain management in cancer patients and survivors, where chronic pain from cancer, its treatment and unrelated causes may overlap. Thus, a therapy capable of treating different cancer pain modalities is essential. Kinin B1 and B2 receptors could be promising pharmacological targets to treat the pain caused by the tumor and its therapy while still reducing tumor proliferation. Although the pro-tumor role seems to prevail, it is essential to review in detail the effect of kinins in each specific type of cancer to investigate their involvement in those that cause pain. Furthermore, many therapies are common to different cancers. Thus, the targets to alleviate anticancer treatment-induced pain should be considered, given the type of cancer. This assessment is also valid and prudent for new analgesic candidates against cancer pain and their therapy, especially to rule out a possible protumor activity of this analgesic.

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Presenting Author

Indiara Brusco

Poster Authors

Indiara Brusco

PhD

Community University of Chapecó Region (Unochapecó)

Lead Author

Sara Marchesan Oliveira

PhD

Federal University of Santa Maria

Lead Author

Topics

  • Specific Pain Conditions/Pain in Specific Populations: Cancer Pain & Palliative Care