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1.
Journal of Thoracic Oncology ; 17(9):S240, 2022.
Article in English | EMBASE | ID: covidwho-2031516

ABSTRACT

Introduction: New York City was the first place in the US to record a COVID-19 case on March 1, 2020, and soon became the epicenter of the pandemic. Because of the large number of hospitalized patients, Governor Cuomo imposed a halt on all elective care from March 22 to June 8, 2020. Such action resulted in delayed cancer screening rates, care and treatment. However, no study has quantified the effect of the “pause” on cancer stage at diagnosis, one of the best indicators of cancer prognosis. We analyze here data from the Mount Sinai Heath System cancer registry;we chose lung cancer as an example of a condition where early diagnosis can dramatically modify survival. Methods: Lung cancer cases diagnosed between January 1, 2018 and February 28, 2021 (n=1884) at the Mount Sinai Health System were identified from Mount Sinai’s cancer registry, based on ICD-10 codes of C34.x. Only analytic cases (00-22) were included, based on Commission on Cancer guidelines. For multi-tumor or multi-hospital cases, unique patients were identified by selecting the earliest date of diagnosis. The ratio of the number of monthly cases in 2020-2021 over the average number of monthly cases in 2018 and 2019 was calculated. The percent of monthly diagnoses with early (0/I/II), late (III/IV) and unknown stage over the total number of monthly diagnoses was examined and was compared to the average percent in 2018 and 2019 from the same month. Results: The number of diagnoses sharply dropped in March 2020, reaching a minimum in April (78% lower than pre-pandemic averages), and returned to near pre-pandemic levels by July 2020, began to decline again in January and February 2021 (35% lower than pre-pandemic averages) (Figure 1a). Stages 0/I/II dropped to 21.9% of total in May 2020, while stage III/IV hit 75% in April 2020. Early stage diagnoses dropped again to 23.5% of total, while late stages increased to 64.7% of total in February 2021 (Figure 1b). The percent of stage III/IV diagnoses in April of 2020 was 1.79 times greater than the pre-pandemic average, the percent of stage 0/I/II diagnoses was 50% lower. The percent of stage 0/I/II cases increased between August 2020 and January 2021, but in February 2021 it was 50% lower than pre-pandemic levels, and the percent of stage III/IV diagnoses was 1.3 times greater than pre-pandemic levels (Figure 1c). Conclusions: This descriptive analysis suggests an immediate negative impact on lung cancer diagnoses of COVID-19 restrictions, which affected screening, early detection, and drastically reduced any patient’s contact with the health system that would have prompted an early lung cancer diagnosis. The increase in late stage diagnoses during pandemic surges may reflect the fact that only sick patients with symptoms, and acute events that require immediate care were seeking hospital attention. The data suggests that we will likely observe an increase in lung cancer mortality in the next few months and years, as consequence of stage shift at diagnosis associated with the COVID-19 pandemic. Keywords: Lung cancer, Covid-19, Stage shift

2.
Pediatric Rheumatology ; 19(SUPPL 1), 2021.
Article in English | EMBASE | ID: covidwho-1571780

ABSTRACT

Introduction: JIA patients are targeted for vaccination as a population at risk of severe influenza disease. Recent COVID-19 pandemic is an additional challenge;nonetheless, their influenza vaccine coverage remains uncertain. Objectives: To assess the flu vaccination rate in JIA patients & investigate family's attitudes towards it;to identify how COVID-19 pandemic has affected caregiver's decision on flu vaccine administration. Methods: A multi-center cross-sectional study was conducted across 9 countries. Participants completed a questionnaire about the flu vaccination uptake history including the year of 2020-21, sociodemographics and data regarding the disease. Analysis was conducted using SPSSv.20. Results: 655 JIA caregivers were surveyed across 9 countries (Table). The majority was employed (61.2%), married (78.5%) & held a tertiary education (43.1%). Patient's median age was 11y (IQR: 7-15). Principal diagnosis was oligoJIA (34%) & most patients were treated systemically (81%). 21.7% had received influenza vaccine in the past & 18.6% in 2019-20 season;85% were fully vaccinated. 152 children (23.2%) were vaccinated against flu the current season. The majority was informed by their ped rheumatologist (33.5%). Highest uptake was recorded in Greece (79.3%) while lowest in Turkey (1.1%) (p<0.01) (Table). Employed & self-employed and those with tertiary education were more likely to vaccinate their children compared to unemployed & those with elementary education (28.2% & 29.9% vs 13.6%, 28% vs 9.7% respectively, p<0.01). Children with psoriatic & polyJIA had the highest uptake (both 30%) while patients with undifferentiated reported the lowest (7.4%, p<0.01). Among vaccinators, 92.4% were fully vaccinated, 64.6% had been vaccinated in the past & 57.6% in 2019-20 season (p<0.05). An increase was reported in uptake between 2019-20 & 2020-21 seasons (18.6% vs 23.2%, p<0.01). Among non-vaccinators, 52% did not have the chance to discuss their concerns. Major reason for non-vaccination was unawareness of the need (36%);13% reported it was a doctor's advice. Caregivers suggested that informing in advance (67%) may improve uptake. Most of caregivers expressed their concerns regarding their children's vulnerability to SARS-COV-2 due to JIA (51.3%) & their risk of COVID-19 (85.3%);51.3% of them were pro COVID-19 vaccine administration to their children (Table). Those who vaccinated their children against flu in the 2019-20 & 2020-21 seasons were more likely to vaccinate them against SARS-COV-2 (79.5% & 73.4% respectively, p<0.01). Conclusion: Despite variations among countries, flu vaccine uptake remains low in JIA patients. Higher education, thorough informative discussion and notifying families in advance may lead to universal vaccine coverage in children with RDs.

4.
Clinical Cancer Research ; 26(18 SUPPL), 2020.
Article in English | EMBASE | ID: covidwho-992106

ABSTRACT

Introduction: Morbidity and mortality of cancer patients with COVID-19 have not been examined. The goal of thisanalysis was to compare the demographics and clinical characteristics of COVID-19 cancer patients to the rest ofCOVID-19 patients and assess whether cancer is associated with morbidity or mortality. Methods: COVID-19-positive patients with an inpatient or emergency encounter at the Mount Sinai Health Systembetween 03/01/20-05/27/20 were included in the analysis. Patients were compared across cancer status(noncancer, non-solid cancers, and solid cancers) on demographics and clinical characteristics. Multivariable logisticregressions were used to model the associations of cancer status with sepsis, acute venous thromboembolism, andmortality. Results: There were 5,516 COVID-19 positive patients included, 96 (1.7%) with non-solid cancers and 325 (5.8%)with solid cancers. Those with solid cancers were significantly older (mean: 70.9 vs. 63.8 and 63.2 years) and morelikely to be non-Hispanic Black (26.5% vs. 23.9% and 22.9%) than noncancer and non-solid cancers patients. Those with cancer had significantly more additional comorbid conditions (42.7% and 49.8% ≥2 comorbidities for non-solidand solid cancers, vs. 30.4% for noncancer). Platelets (mean [noncancer]: 223.8, mean [non-solid cancer]: 182.6, mean [solid cancer]: 218.3 × 10 /μL), white blood cell count (mean [noncancer]: 8.4, mean [non-solid cancer]: 6.7, mean [solid cancer]: 8.0 × 10 /μL), hemoglobin (mean [noncancer]: 13.1, mean [non-solid cancer]: 11.2, mean [solidcancer]: 12.0 g/dL), and red blood cell count (mean [non-cancer]: 4.5, mean [non-solid cancer]: 3.7, mean [solid cancer]: 4.1 × 10 /μL) were significantly lower in cancer patients, and lowest in those with non-solid cancers. Afteradjustment and compared to noncancer patients, those with cancer had significantly higher risk of acute venousthromboembolism (OR : 1.77, 95% CI: 1.01-3.09) and sepsis (OR : 1.34, 95% CI: 1.09-1.64). There was nosignificant difference in mortality (OR : 1.02, 95% CI: 0.81-1.29). There was no significant difference in alloutcomes for solid and non-solid cancer types. Conclusion: COVID-19 patients with cancer, particularly solid tumors, are significantly older, with morecomorbidities than those without cancer. There was no statistically significant difference in mortality for COVID-19patients with cancer, but a significantly higher risk of thromboembolism and sepsis. Further research into the effectthat cancer treatments may have in inflammatory and immune responses to COVID is warranted.

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