Given a passage classify if the passage has a definite objective/aim/goal or not. Output '1' if the passage has a defininte objective/aim/goal and output '0' if the passage does not have a definite objective/aim/goal.

Example Input: We investigated suspected food intolerances in patients with irritable bowel syndrome (IBS) using confocal laser endomicroscopy (CLE) for real-time visualization of structural/functional changes in the intestinal mucosa after food challenge. Patients with functional changes after food challenge (CLE+) were placed on personalized exclusion diets and followed up for long-term symptom relief.', "Thirty-six IBS patients with suspected food intolerance and 10 patients with Barrett's esophagus (controls) without IBS symptoms were examined by CLE at University Hospital Schleswig-Holstein (Kiel, Germany). Diluted food antigens were administered directly to the duodenal mucosa through the working channel of the endoscope. Epithelial breaks, intervillous spaces, and the number of intraepithelial lymphocytes (IEL) were measured before and after the food challenge. CLE+ patients were placed on exclusion diets, given symptom score questionnaires, and followed up for 1 year; controls resumed their previous diet.", 'CLE showed a real-time response to food antigens in 22 of 36 patients; no responses were observed in 14 of 36 patients (CLE-) or any of the controls. Baseline IELs were significantly higher in CLE+ than CLE- subjects (P= .004); numbers increased significantly after food challenge (P= .0008). Within 5 minutes of exposure of CLE+ patients to food antigens, IELs increased, epithelial leaks/gaps formed, and intervillous spaces widened. Epithelial leaks and intervillous spaces also increased significantly in CLE+ vs baseline (both P < .001). The concordance of IELs measured by CLE and conventional histology was 70.6%; they did not correlate (P= .89; r(2)= 0.027). Symptom scores improved more than 50% in CLE+ patients after a 4-week exclusion diet and increased to 74% at 12 months; symptoms continued in CLE- patients.
Example Output: 1

Example Input: Apical potassium channels regulate ion transport in airway epithelial cells and influence air surface liquid (ASL) hydration and mucociliary clearance (MCC). We sought to identify whether genetic variation within genes encoding airway potassium channels is associated with chronic rhinosinusitis (CRS).', "Single nucleotide polymorphism (SNP) genotypes for selected potassium channels were derived from data generated on the Illumnia HumanHap550 BeadChip or Illumina Human610-Quad BeadChip for 828 unrelated individuals diagnosed with CRS and 5,083 unrelated healthy controls from the Children's Hospital of Philadelphia (CHOP). Statistical analysis was performed with set-based tests using PLINK, and corrected for multiple testing.", 'Set-based case control analysis revealed the gene KCNMA1 was associated with CRS in our Caucasian subset of the cohort (598 CRS cases and 3,489 controls; p=0.022, based on 10,000 permutations). In addition there was borderline evidence that the gene KCNQ5 (p=0.0704) was associated with the trait in our African American subset of the cohort (230 CRS cases and 1,594 controls). In addition to the top significant SNPs rs2917454 and rs6907229, imputation analysis uncovered additional genetic variants in KCNMA1 and in KCNQ5 that were associated with CRS.
Example Output: 0

Example Input: CXCL8 (previously known as Interleukin-8), a member of the alpha-chemokine family of chemotactic cytokines, stimulates intestinal neutrophil activation and chemotaxis. As intestinal epithelial cells have been recently shown to produce CXCL8, the aim of this study was to identify functional activities of CXCL8 on intestinal epithelial cells.', 'The expression of CXCL8 receptors CXCR1 and CXCR2 was assessed by RT-PCR and FACS analysis in human Caco-2 and HT-29 cells. The effects of CXCL8 on intestinal epithelial proliferation were assessed with colorimetric MTT assays and the effects on epithelial restitution with an in vitro migration model using Caco-2 and HT-29 cells.', 'While the expression of both CXCR1 mRNA and protein could be demonstrated by RT-PCR and FACS analysis in human Caco-2 and HT-29 cells, no expression of CXCR2 was observed in these cell lines. Colorimetric MTT assays revealed that CXCL8 does not modulate cell proliferation in HT-29 and Caco-2 cells. In contrast, CXCL8 significantly enhanced intestinal epithelial migration in an in vitro migration model of HT-29 and Caco-2 cells. Enhancement of intestinal epithelial cell migration by CXCL8 was partially CXCR1-dependent and TGFbeta-independent.
Example Output:
0