Given the task definition, example input & output, solve the new input case.
Indicate the presence of numerical data in the abstract (whether numerical data plays a key role in medical records), solely using the information from the abstract.
Example: Abstract: Some patients converted from ventricular fibrillation to organized rhythms by defibrillation - trained ambulance technicians(EMT - Ds) will refibrillate before hospital arrival.The authors analyzed 271 cases of ventricular fibrillation managed by EMT - Ds working without paramedic back - up.Of 111 patients initially converted to organized rhythms, 19(17%) refibrillated, 11(58%) of whom were reconverted to perfusing rhythms, including nine of 11(82%) who had spontaneous pulses prior to refibrillation.Among patients initially converted to organized rhythms, hospital admission rates were lower for patients who refibrillated than for patients who did not(53 % versus 76% , P = NS), although discharge rates were virtually identical(37 % and 35 % , respectively).Scene - to - hospital transport times were not predictively associated with either the frequency of refibrillation or patient outcome.Defibrillation - trained EMTs can effectively manage refibrillation with additional shocks and are not at a significant disadvantage when paramedic back - up is not available.
Question: Does the abstract contain any numerical data?
Output: Yes
As there are numerical figures and percentages (%), the answer is yes.

New input case for you: Abstract: We compared the MCR, volume of distribution, and rapid phase (rt1/2) and slow phase half-lives of purified pituitary rat (r) TSH, TSH from crude pituitary extracts of normal and hypothyroid rats, TSH from hypothyroid rat sera, and TSH secreted from hypothyroid rat pituitaries incubated in vitro. For 3 h after iv bolus injection into euthyroid rats, 125I-labeled rTSH was determined by acid precipitation in serum and various organs, and unlabeled TSH was measured by RIA. The MCR of TSH from normal pituitary extracts (0.53 +/- 0.02 ml/min) was similar to that of unlabeled purified rTSH (0.52 +/- 0.03), while those from hypothyroid pituitary extracts (0.32 +/- 0.03) and hypothyroid sera (0.33 +/- 0.01) were decreased. The reduced MCR of TSH from hypothyroid pituitaries was due to a decreased distribution volume (8.4 +/- 0.6 ml) compared to that from normal pituitaries (11.4 +/- 0.7) and hypothyroid sera (10.9 +/- 0.8). The decreased MCR of circulating TSH from hypothyroid sera reflected an increase in its rt1/2 (12.6 +/- 0.5 min) vs. that from both normal (5.1 +/- 0.5) and hypothyroid (5.7 +/- 0.4) pituitaries. The rt1/2 of secreted TSH from incubated hypothyroid rat pituitaries (8.5 +/- 0.9) was intermediate between those of circulating and pituitary forms of hypothyroid rTSH. The clearances of intact bovine TSH (bTSH) and deglycosylated bTSH (dg-bTSH) were compared. The dg-bTSH MCR was found to be increased (0.71 +/- 0.02 ml/min) compared to that of bTSH (0.59 +/- 0.02), primarily due to a decreased rt1/2 for dg-bTSH (3.8 +/- 0.1 min) vs. bTSH (4.7 +/- 0.2). Uptake of purified [125I]rTSH was highest in the kidney at all times, varying from 43% of the injected dose at 5 min to 54% at 180 min. We conclude that in the euthyroid rat, 1) the metabolic clearance of TSH differs between pituitary and serum forms and appears to depend on specific molecular features that vary with the physiological state of the animal from which the TSH is derived; 2) since chemical deglycosylation increased the clearance of TSH, we speculate that the chemical basis for changes in TSH clearance may be related to alterations in its carbohydrate structure; and 3) for normal pituitary TSH, the kidney is the major organ of clearance.
Question: Does the abstract contain any numerical data?
Output:
Yes