check this format content in detail
Review the thesis formatting section by section
check in detail content in detail
~/
~/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d
university thesis formatting checklist abstract table of contents chapter headings references formatting
mkdir -p "/tmp/workspace/thesis-review/src" "/tmp/workspace/thesis-review/output" && python3 - <<'PY' from docx import Document from docx.enum.style import WD_STYLE_TYPE from collections import Counter, defaultdict from pathlib import Path import re, json p=Path('/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx') doc=Document(str(p)) out=Path('/tmp/workspace/thesis-review/output') # metadata & styles meta={'paragraphs':len(doc.paragraphs),'tables':len(doc.tables),'sections':len(doc.sections),'inline_shapes':len(doc.inline_shapes), 'core_properties': {k:getattr(doc.core_properties,k) for k in ['title','author','subject','keywords','created','modified','last_modified_by']}} styles=Counter((x.style.name if x.style else 'None') for x in doc.paragraphs if x.text.strip()) meta['paragraph_styles']=styles for i,s in enumerate(doc.sections,1): meta[f'section_{i}']={'top_in':round(s.top_margin.inches,3),'bottom_in':round(s.bottom_margin.inches,3),'left_in':round(s.left_margin.inches,3),'right_in':round(s.right_margin.inches,3),'header_in':round(s.header_distance.inches,3),'footer_in':round(s.footer_distance.inches,3),'different_first':s.different_first_page_header_footer} (out/'metadata.json').write_text(json.dumps(meta,default=str,indent=2)) # all paragraphs with format metadata lines=[] for i,x in enumerate(doc.paragraphs,1): t=' '.join(x.text.split()) if not t: continue pf=x.paragraph_format runs=[r for r in x.runs if r.text] fonts=Counter((r.font.name or '', r.font.size.pt if r.font.size else None, bool(r.bold), bool(r.italic)) for r in runs) lines.append(f'{i:05d}\t[{x.style.name}]\t{t}\t| align={x.alignment} before={pf.space_before.pt if pf.space_before else None} after={pf.space_after.pt if pf.space_after else None} line={pf.line_spacing} indentL={pf.left_indent.inches if pf.left_indent else 0} first={pf.first_line_indent.inches if pf.first_line_indent else 0} fonts={dict(fonts)}') (out/'paragraphs_with_format.txt').write_text('\n'.join(lines)) # headings plus nearby text h=[] for i,x in enumerate(doc.paragraphs): t=' '.join(x.text.split()) if t and (x.style.name.lower().startswith('heading') or re.match(r'^(chapter\s+|[0-9]+(\.[0-9]+)*\s)',t,re.I)): h.append((i+1,x.style.name,t)) (out/'headings.txt').write_text('\n'.join(f'{i}\t[{s}]\t{t}' for i,s,t in h)) # tables text for ti,tb in enumerate(doc.tables,1): rows=[] for row in tb.rows: rows.append(' | '.join(' '.join(cell.text.split()) for cell in row.cells)) (out/f'table_{ti:02d}.txt').write_text('\n'.join(rows)) print(json.dumps(meta,default=str,indent=2)) print('headings',len(h),'tables',len(doc.tables)) PY
python3 - <<'PY' from docx import Document from docx.oxml.ns import qn from collections import Counter p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx' d=Document(p) # Count manual formatting and page breaks; headers/footers for si,s in enumerate(d.sections,1): print('SECTION',si,'header=',repr(s.header.paragraphs[0].text if s.header.paragraphs else ''),'footer=',repr(s.footer.paragraphs[0].text if s.footer.paragraphs else '')) print('PAGE_BREAKS',sum(1 for p in d.paragraphs for r in p.runs if 'w:type="page"' in r._r.xml)) # common font sizes/names/runs c=Counter() for p in d.paragraphs: for r in p.runs: if r.text.strip(): c[(r.font.name or 'inherited',r.font.size.pt if r.font.size else 'inherited')]+=1 print('FONTS',c.most_common(20)) # find fields, comments-ish, TOC xml=d.part.element.xml for x in ['TOC','HYPERLINK','PAGE','w:footnoteReference','w:commentRangeStart','w:ins','w:del']: print(x,xml.count(x)) PY
interhemispheric transfer children
python3 - <<'PY' from docx import Document from pathlib import Path import re p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx'; d=Document(p); out=Path('/tmp/workspace/thesis-review/output') # simple review print every textual paragraph, section-like candidates and references / spelling items=[] for n,x in enumerate(d.paragraphs,1): t=' '.join(x.text.split()) if not t: continue # titles / leading labels focus if (len(t)<125 and (t.isupper() or re.match(r'^(CHAPTER|[0-9]+\.|Abstract|INTRODUCTION|REVIEW|METHODOLOGY|RESULTS|DISCUSSION|CONCLUSION|REFERENCES|APPENDIX|LIST OF|DECLARATION|CERTIFICATE|ACKNOWLEDG)',t,re.I))): items.append(f'{n}: {t}') (out/'section_candidates.txt').write_text('\n'.join(items)) # spelling / likely improper word patterns terms=['assesment','spilt-brain','Kruskal–Walli','Kruskal-Walli','thereby','this word served','right- handed','mixed – handed','fulfilment','interhemispheric'] for term in terms: hits=[f'{n}: {" ".join(x.text.split())}' for n,x in enumerate(d.paragraphs,1) if term.lower() in x.text.lower()] if hits: (out/f'hits_{re.sub("[^a-zA-Z]+","_",term)}.txt').write_text('\n'.join(hits)) # tables overview s=[] for i,t in enumerate(d.tables,1): s.append(f'TABLE {i}: {len(t.rows)} rows x {len(t.columns)} cols') s+=[' '+' | '.join(' '.join(c.text.split())[:80] for c in r.cells) for r in t.rows[:3]] (out/'tables_overview.txt').write_text('\n'.join(s)) # list particular entire content probably sections around ranges into manageable sections every 50 paragraphs original for start in range(1,len(d.paragraphs)+1,100): a=[] for n,x in list(enumerate(d.paragraphs,1))[start-1:start+99]: if x.text.strip(): a.append(f'{n}: {" ".join(x.text.split())}') (out/f'content_{start:03d}_{min(start+99,len(d.paragraphs)):03d}.txt').write_text('\n'.join(a)) print('done',len(items)) PY
python3 - <<'PY' from docx import Document from collections import Counter p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx';d=Document(p) # identify figures from inline shape anchors plus headings, duplicate names, blank paras/ hard PB/ formatting anomalies print('PARAS',len(d.paragraphs),'TABLES',len(d.tables),'FIGURES',len(d.inline_shapes)) print('EMPTY',sum(not x.text.strip() for x in d.paragraphs)) for i,t in enumerate(d.tables,1): texts=[' '.join(c.text.split()) for r in t.rows for c in r.cells] print(i, 'emptycells',sum(not x for x in texts),'lastrow', [ ' '.join(c.text.split()) for c in t.rows[-1].cells]) # document note: print all para entries 550 onwards for n,x in enumerate(d.paragraphs,1): if n>=550 and x.text.strip():print(n, ' '.join(x.text.split())) PY
python3 - <<'PY' from docx import Document import re p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx';d=Document(p) # citation numbers cited in text first 561 paras nums=[] for n,x in enumerate(d.paragraphs,1): if n>=561: break t=x.text # individual numeric notes approximate attached or standalone, exclude tables etc nums+= [(n,int(z)) for z in re.findall(r'(?<![A-Za-z0-9])([0-9]{1,2})(?![A-Za-z0-9])',t)] print('max',max(z for _,z in nums),'unique',sorted(set(z for _,z in nums))) # output full TOC table + ref count and duplicate raw normalized titles print('TOC') for row in d.tables[0].rows: print(' | '.join(c.text.replace('\n',' ').strip() for c in row.cells)) print('LOF') for row in d.tables[1].rows:print(' | '.join(c.text.replace('\n',' ').strip() for c in row.cells)) print('LOT') for row in d.tables[2].rows:print(' | '.join(c.text.replace('\n',' ').strip() for c in row.cells)) PY
.docx for document structure, formatting, tables, figures, language, internal consistency, and academic content. It contains 772 paragraphs, 18 tables, and 12 embedded figures.Heading 1 to all chapter headings:
Heading 2 to major subheadings such as:
Heading 3 to tool-specific sections and task stages.| Location | Wording issue |
|---|---|
| Cover page | “Behavioral Assessment of Interhemispheric Connection…” |
| Certificate | Uses “Behavioural” and “CROSS- SECTIONAL” |
| Annexure 03 participant sheet | Says “An Observational Study” |
| Informed consent form | Says “An Observational Study” |
| Kannada documents | Uses another translated variation |
2,212&35,23 .In[2,3][5,23]| Subheading | What to cover |
|---|---|
| Corpus callosum and interhemispheric connectivity | Relevant anatomy, functional role, developmental context |
| Development of interhemispheric transfer in childhood | Age-related evidence, key developmental findings |
| Handedness and laterality | EHI, rationale for inclusion/exclusion of mixed-handed participants |
| Tactile intermanual transfer | Prior tasks, validity, outcomes, developmental evidence |
| Bimanual tapping and coordination | In-phase and anti-phase paradigms, gap score, prior evidence |
| Research gap | Limited Indian normative data, need for task-based assessment |
LQ = ×100p < 0.001ρ = 0.428H = 21.069“This indicates that higher age was associated with better tactile intermanual transfer performance.”
“Age was positively associated with Transfer Index scores (Spearman’s ρ = 0.428, p < 0.001), indicating higher scores among older participants.”
“These task-based measures may be explored in future research as potential components of developmental assessment. Diagnostic or screening use would require validation in clinical populations and the establishment of age-specific normative data.”
This cross-sectional study assessed task-based measures of interhemispheric performance in 120 typically developing children aged 6-12 years. Tactile intermanual transfer, bimanual tapping, and bimanual coordination measures showed significant associations with age, whereas sex-wise differences were not statistically significant for the reported measures. The findings support the feasibility of using simple behavioural tasks to describe age-related patterns of sensory and motor interhemispheric performance in this sample. However, these measures should not be used as diagnostic or screening tools without further validation, age-specific normative data, reliability assessment, and study in relevant clinical populations.
check only content whether title aim and objective and result with discussion is matching check the content properrly
corpus callosum bimanual coordination children
STROBE cross-sectional study results discussion associations causal inference reporting guideline
python3 - <<'PY' from docx import Document p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx'; d=Document(p) for a,b,label in [(175,215,'AIM_OBJECTIVES'),(380,472,'RESULTS'),(470,521,'DISCUSSION')]: print('\n###',label) for n,x in enumerate(d.paragraphs,1): if a<=n<=b and x.text.strip(): print(f'{n}: {" ".join(x.text.split())}') PY
| Component | Match status | Main finding |
|---|---|---|
| Title and aim | Mostly matches | Both address task-based assessment of interhemispheric function in healthy school-aged children |
| Objectives and results | Partly matches | Primary objective is covered; secondary “normative reference values” objective is only partially achieved |
| Results and discussion | Mostly matches | Discussion follows the reported results, but some interpretations are too strong |
| Conclusion and results | Partly matches | Conclusion overstates diagnostic/screening value and causation |
“Behavioral Assessment of Interhemispheric Connection in School-Aged Children Using Task-Based Measures: A Cross-Sectional Study”
“To assess interhemispheric connectivity typically in healthy school-aged children using task-based observational measures.”
“To assess and profile interhemispheric connectivity in healthy school-aged children using task-based measures - a tactile intermanual transfer, bimanual coordination and bimanual tapping.”
Behavioural Assessment of Interhemispheric Function in Healthy School-Aged Children Using Task-Based Measures: A Cross-Sectional Study
Task-Based Assessment of Interhemispheric Transfer and Bimanual Coordination in Healthy School-Aged Children: A Cross-Sectional Study
To assess and profile interhemispheric connectivity using tactile intermanual transfer, bimanual coordination, and bimanual tapping.
“The tactile intermanual task is used to assess the integrity of the posterior section of the corpus callosum.”
“The tactile intermanual transfer task was used as a behavioural measure of interhemispheric sensory transfer.”
“Bimanual tapping was used as a behavioural measure of bimanual motor coordination and interhemispheric motor control.”
“To establish preliminary normative reference values for task-based measures of interhemispheric connectivity in the children population.”
“To describe preliminary age-related reference values for task-based measures of interhemispheric sensory transfer and bimanual coordination in healthy school-aged children.”
“The study provides preliminary descriptive age-related values for the assessed task-based measures. Larger representative samples are required before these values can be considered normative reference standards.”
“To compare task-based measures of interhemispheric sensory transfer and bimanual coordination between male and female participants.”
| Result | Discussion alignment |
|---|---|
| High median Transfer Index, 87.5% in normal category | Discusses generally high tactile transfer performance |
| In-phase accuracy higher than anti-phase accuracy | Discusses expected greater difficulty of anti-phase tapping |
| Low median Gap Score | Discusses generally good bimanual independence |
| Age positively associated with Transfer Index and bimanual coordination | Discusses age-related pattern across sensory and motor measures |
| Gap Score negatively associated with age | Discusses reduced difference between in-phase and anti-phase performance with age |
| No statistically significant sex difference | Discussion reports no significant sex effects |
| Condition 1 had no variability | Discussion acknowledges it as a methodological limitation |
“Table 5.8 compares the three predefined age bands: 6-8, 9-10, and 11-12 years. Figures 8 and 9 present exploratory analyses across the seven individual age groups from 6 to 12 years; therefore, their Kruskal-Wallis statistics differ from those in Table 5.8.”
“All major task-based measures - tactile transfer, bimanual tapping, and bimanual coordination - improved significantly with age…”
“Age was significantly associated with Transfer Index, TIA intermanual accuracy, Gap Score, overall bimanual coordination, and selected bimanual coordination conditions. Condition 1 showed no variability and was not analysed inferentially.”
“Age, rather than sex, is the primary factor associated with sensory and motor interhemispheric performance…”
“In this sample, age was significantly associated with several sensory-transfer and bimanual-coordination measures, whereas no statistically significant sex differences were observed.”
| Avoid | Use |
|---|---|
| improved with age | was positively associated with age |
| age-related improvement | age-related differences |
| increasing corpus callosum efficiency | pattern consistent with developmental differences |
| children improve brain communication | older children showed higher performance on selected measures |
| maturation caused better performance | findings may reflect developmental processes, but causality cannot be inferred |
“These brief behavioural tasks may be useful for future research on age-related interhemispheric performance. Their role in screening or clinical assessment requires validation in larger representative samples and relevant clinical populations.”
“This information can be helpful for physiotherapists in detecting cases of poor brain interhemispheric communication such as ADHD, autism, coordination problems.”
This cross-sectional study described task-based measures of tactile intermanual transfer, bimanual tapping, and bimanual coordination in 120 healthy children aged 6-12 years. Age was significantly associated with several sensory-transfer and bimanual-coordination measures, while no statistically significant sex differences were observed in the reported outcomes. The findings provide preliminary descriptive data on task performance across the school-age range. However, because the study was cross-sectional and involved only typically developing children, the results cannot establish causal developmental change, diagnostic cutoffs, or clinical screening utility. Larger longitudinal and validation studies are needed before clinical or screening application.
Task-based sensory-transfer and bimanual-motor measures were assessed in healthy children aged 6-12 years, and several measures showed significant associations with age.
now say what to change is it anything to change in this and also check introduction section then wt u do u say about this study whether is it good check everthing content properly address me what is missing awt to add and wht is wrong so need to chnage
corpus callosum children interhemispheric transfer
STROBE cross-sectional studies discussion key results objectives limitations interpretation
python3 - <<'PY' from docx import Document p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx'; d=Document(p) for a,b,label in [(132,178,'INTRODUCTION'),(179,214,'AIM_OBJECTIVES'),(269,382,'METHODS'),(383,471,'RESULTS'),(472,560,'DISCUSSION_CONCLUSION')]: print('\n### '+label) for n,x in enumerate(d.paragraphs,1): if a<=n<=b and x.text.strip(): print(f'{n}: {" ".join(x.text.split())}') PY
“In this sample of typically developing children, age was associated with performance on selected task-based measures of tactile intermanual transfer and bimanual coordination.”
“The tests assess corpus-callosum integrity,”
“the study established normative values,”
“these tests can detect ADHD/autism,” or
“age caused improved brain communication.”
“Behavioral Assessment of Interhemispheric Connection in School-Aged Children Using Task-Based Measures: A Cross-Sectional Study”
Task-Based Assessment of Interhemispheric Transfer and Bimanual Coordination in Typically Developing School-Aged Children: A Cross-Sectional Study
Behavioural Assessment of Interhemispheric Function in Typically Developing School-Aged Children: A Cross-Sectional Study
“To assess interhemispheric connectivity typically in healthy school-aged children using task-based observational measures.”
To assess task-based measures of interhemispheric sensory transfer and bimanual coordination in typically developing school-aged children.
“To assess and profile interhemispheric connectivity in healthy school-aged children using task-based measures - a tactile intermanual transfer, bimanual coordination and bimanual tapping.”
To describe tactile intermanual transfer, bimanual tapping, and bimanual coordination performance in typically developing children aged 6-12 years.
“To establish preliminary normative reference values for task-based measures of interhemispheric connectivity in the children population.”
To generate preliminary age-related descriptive values for tactile intermanual transfer, bimanual tapping, and bimanual coordination measures.
To examine the association between age and task-based measures of tactile intermanual transfer and bimanual coordination.
To explore whether task-based performance differs between male and female participants.
“Without such connectivity, each hemisphere functions independently, causing chaos and confusion in behavior.”
“The corpus callosum contributes to the integration of sensory, motor, and cognitive information between the cerebral hemispheres. Altered interhemispheric communication may affect the coordination of selected cognitive and motor functions.”
“The corpus callosum develops rapidly at age 3 to 10 years…”
“The corpus callosum undergoes prolonged structural and functional development throughout childhood and adolescence, with developmental changes varying across callosal regions.”
“The period of ages 6 to 12 is critical in terms of interconnectivity and synchronisation…”
“The school-age period is relevant for studying age-related differences in interhemispheric sensory transfer and bimanual motor coordination because these functions continue to develop during childhood.”
“The transfer of touch information from one hand to another can only occur through the corpus callosum.”
“Tactile intermanual transfer tasks are commonly used as behavioural measures that may reflect interhemispheric transfer of tactile information, with the corpus callosum having an important role in this process.”
“The children with various disorders such as corpus callosum agenesis, brain injury, cerebral palsy and down syndrome fail this task.”
“Children with neurological or neurodevelopmental conditions may demonstrate altered performance on interhemispheric transfer and bimanual coordination tasks; however, performance varies by diagnosis, severity, age, and task characteristics.”
“Children with ADHD… have high ITA, similar to the outcomes of underdeveloped corpus callosum…”
“Some studies have reported differences in motor coordination and white-matter characteristics among children with ADHD. These findings should not be interpreted as evidence that a behavioural tapping result directly indicates corpus-callosum abnormality.”
Although several studies have examined interhemispheric transfer and bimanual coordination in children, the available evidence is heterogeneous with respect to task protocols, age groupings, scoring methods, and outcome measures. There is limited descriptive information on the performance of typically developing Indian school-aged children using a combined battery of tactile intermanual transfer, bimanual tapping, and bimanual coordination tasks.
“there are only few handfuls of behavioural assessments tool…”
“Limited research has described age-related performance on multiple task-based measures of interhemispheric sensory transfer and bimanual coordination in typically developing Indian school-aged children. In particular, there is limited local descriptive data using a combined task battery.”
“Task-based assessment may be feasible in school settings because it is non-invasive, low cost, and does not require neuroimaging equipment. However, behavioural task performance should be interpreted as an indicator of functional performance rather than as a direct measure of corpus-callosum structure or brain connectivity.”
“Therefore, this cross-sectional study was undertaken to describe task-based tactile intermanual transfer, bimanual tapping, and bimanual coordination performance in typically developing children aged 6-12 years, and to examine their association with age.”
“The sample size was calculated the formula for estimation of single mean…”
“To allow for incomplete assessments and planned subgroup analyses…”
LQ = ×100
Laterality Quotient = [(R - L) / (R + L)] × 100
“The study included 120 children: 59 (49.2%) were aged 6-8 years, 35 (29.2%) were aged 9-10 years, and 26 (21.7%) were aged 11-12 years. There were 68 boys (56.7%) and 52 girls (43.3%).”
“This indicates effective sensory information transfer between the hands.”
“The median Transfer Index was 94.43% (IQR 87.31-100.00), with values ranging from 47.05% to 100.00.”
“The primary age-group analysis compared the prespecified age bands of 6-8, 9-10, and 11-12 years. Figures presenting individual ages are descriptive or exploratory and should not be interpreted as the primary inferential analysis.”
| Outcome | Table value | Figure narrative value |
|---|---|---|
| Transfer Index | H = 21.069 | H = 24.153 |
| Bimanual coordination | H = 19.342 | H = 19.660 |
“At least one age group differed from another.”
“All major task-based measures improved significantly with age.”
“Age was significantly associated with Transfer Index, tactile intermanual accuracy, Gap Score, overall bimanual coordination, and selected bimanual coordination conditions.”
“Age is the primary factor associated with interhemispheric performance.”
“Within this sample, age was significantly associated with several task-based outcomes, whereas no statistically significant sex differences were observed.”
“The findings reflect genuine maturation of the corpus callosum.”
“The findings are consistent with age-related developmental differences in task performance reported in prior literature. The present behavioural data do not directly demonstrate structural maturation of the corpus callosum.”
“Children with mild reduction or moderate impairment can be flagged for neurodevelopmental evaluation.”
“Further studies should evaluate the reliability, age-specific reference ranges, and clinical validity of these tasks before they are considered for screening or diagnostic use.”
This cross-sectional study described task-based tactile intermanual transfer, bimanual tapping, and bimanual coordination performance in 120 typically developing children aged 6-12 years. Age was significantly associated with Transfer Index, tactile intermanual accuracy, Gap Score, and selected bimanual coordination measures. No statistically significant sex differences were observed in the reported task outcomes.The findings provide preliminary descriptive age-related data on selected behavioural measures of interhemispheric sensory transfer and bimanual coordination in this sample. Because the study used a cross-sectional design, convenience sampling, and behavioural tasks without neuroimaging or clinical comparison groups, it cannot establish causal developmental change, corpus-callosum integrity, diagnostic cutoffs, or screening utility. Larger longitudinal studies with representative samples, validated task protocols, reliability testing, and clinical comparison groups are needed.
“How do task-based tactile intermanual transfer, bimanual tapping, and bimanual coordination measures vary with age in typically developing children aged 6-12 years?”
“Older age will be associated with higher tactile transfer and bimanual coordination scores and lower Gap Scores.”“No significant sex differences are expected in the primary task-based outcomes.”
In typically developing children aged 6-12 years, several behavioural measures of tactile intermanual transfer and bimanual coordination were associated with age. The study provides preliminary descriptive data, but it does not establish brain connectivity, diagnostic criteria, or validated screening norms.
Check the Results and Discussion line by line
Table 5. 1: Demographic characteristics of the study participants
Table 5.1: Demographic characteristics of the study participants
“Among the 120 participants, 59 (49.2%) belonged to the 6-8-year age group...”
The study included 120 participants. Of these, 59 (49.2%) were aged 6-8 years, 35 (29.2%) were aged 9-10 years, and 26 (21.7%) were aged 11-12 years. There were 68 boys (56.7%) and 52 girls (43.3%).
“This demographic distribution was important for subsequent analysis...”
“To assess sensory transfer using the Tactile Intermanual Transfer Index”
Tactile Intermanual Transfer Performance
“Table 5.2: Descriptive statistics of tactile intermanual transfer performance”
“Overall, the findings indicate generally good tactile intermanual transfer ability among the children, supporting effective sensory information transfer between the two hands.”
The median Transfer Index was 94.43% (IQR: 87.31-100.00), with values ranging from 47.05% to 100.00%. These findings show variation in tactile intermanual task performance within the study sample.
“Distribution of participants according to Tactile Intermanual Transfer Index”
Distribution of Participants According to Tactile Intermanual Transfer Index
“Table 5.3: Distribution of participants according to Tactile Intermanual Transfer Index”
“Overall, the findings indicate that tactile intermanual transfer was generally well developed among the study participants.”
“Most participants had Transfer Index scores of 80% or higher, whereas 15 participants had scores below 80%.”
Of the 120 participants, 105 (87.5%) had a Transfer Index score of 80% or higher. Twelve participants (10.0%) had scores between 60% and 79%, and three participants (2.5%) had scores between 40% and 59%. No participant had a score below 40%. The distribution of Transfer Index scores is presented in Table 5.3.
“To assess motor coordination using bimanual tapping and bimanual coordination”
Bimanual Tapping and Bimanual Coordination Performance
“Descriptive statistics of bimanual tapping performance”
“Table 5.4 Descriptive statistics of bimanual tapping performance”
Table 5.4: Descriptive Statistics of Bimanual Tapping Performance
“The relatively low median Gap Score indicates that the majority of children maintained a small difference between the two conditions, reflecting good bimanual independence.”
“The median Gap Score was 4.00% (IQR: 1.00-6.60), with values ranging from 0% to 50%.”
In-phase accuracy was higher than anti-phase accuracy in the study sample, and Gap Score values showed individual variability.
“Distribution of participants according to bimanual tapping Gap Score”
Distribution of Participants According to Bimanual Tapping Gap Score
“Table 5.5 Distribution of participants according to bimanual tapping Gap Score”
“marked impairment in bimanual tapping was uncommon”
Most participants had a Gap Score below 15% (n = 113, 94.2%). Five participants (4.2%) had scores between 15% and 30%, and two participants (1.7%) had scores above 30%. The distribution of Gap Scores is presented in Table 5.5.
“Descriptive statistics of bimanual coordination performance”
“Table 5.6 Descriptive statistics of bimanual coordination performance”
Table 5.6 presents descriptive statistics for the bimanual coordination task. Condition 1 showed no variability among participants and was therefore described only. The median score for Condition 2 was 50.00, whereas the median score for Condition 3 was 40.00. The median overall bimanual coordination score was 53.33. The distribution of scores showed variability across participants, particularly for the more complex coordination conditions.
“Age-Related Analysis”
“Because the secondary objective is to establish preliminary normative reference values, age-related analysis of all task-based measures was performed.”
Age-related analyses were performed to describe the association between age and task-based measures of tactile intermanual transfer and bimanual coordination.
“Correlation between age and task-based measures of interhemispheric connectivity”
Association Between Age and Task-Based Measures
“Table 5.7 Correlation between age and task-based measures of interhemispheric connectivity”
Table 5.7: Correlation Between Age and Task-Based Measures of Interhemispheric Function
Table 5.7: Correlation Between Age and Task-Based Sensory Transfer and Bimanual Coordination Measures
Spearman’s rank correlation analysis showed a significant positive association between age and Transfer Index (ρ = 0.428, p < 0.001), TIA intermanual accuracy (ρ = 0.543, p < 0.001), overall bimanual coordination score (ρ = 0.388, p < 0.001), bimanual coordination Condition 2 (ρ = 0.318, p < 0.001), and Condition 3 (ρ = 0.337, p < 0.001). Age showed a significant negative association with Gap Score (ρ = −0.245, p = 0.007). These results indicate that age was associated with several tactile intermanual transfer and bimanual coordination measures in the study sample.
“Comparison of task-based measures between age groups”
“Table 5.8 Comparison of task-based measures between age groups”
The Kruskal-Wallis test showed significant differences across the three age groups for Transfer Index (H = 21.069, p < 0.001), TIA intermanual accuracy (H = 31.053, p < 0.001), Gap Score (H = 7.710, p = 0.021), overall bimanual coordination score (H = 19.342, p < 0.001), and Bimanual Coordination Condition 3 (H = 12.799, p = 0.002). These findings indicate that at least one age group differed from another for these outcomes. Post-hoc pairwise comparisons are required to identify the specific age groups that differed.
“Comparison of major task-based measures between males and females”
“Table 5.9 Comparison of major task-based measures between males and females”
Mann-Whitney U test showed no statistically significant difference between boys and girls for Transfer Index (p = 0.717), Gap Score (p = 0.661), overall bimanual coordination score (p = 0.080), TIA intermanual accuracy (p = 0.631), or Bimanual Coordination Condition 3 (p = 0.590). Thus, no statistically significant sex differences were observed for the reported task-based outcomes in this sample.
“Figure 5 illustrates the sex distribution…”
Figure 5 shows that 68 participants (56.7%) were boys and 52 (43.3%) were girls.
Figure 6 shows the distribution of participants across individual ages from 6 to 12 years. The largest groups were children aged 10 years (n = 25), 7 years (n = 24), and 8 years (n = 23), whereas the smallest group was children aged 9 years (n = 10).
“Middle age of the group is 9 years, and range of middle age is from 7 to 10 years.”
“Transfer Index generally increased with age…”
“Higher median Transfer Index values were observed in older age groups…”
“Bimanual Coordination also demonstrated an overall increase…”
“Median bimanual coordination scores were generally higher in older age groups…”
Figure 7 presents age-specific median Transfer Index, Gap Score, and bimanual coordination values for children aged 6-12 years.
“children become older, they learn…”
“Higher median Transfer Index values were observed in the older age groups.”
“despite overall improvement…”
“Although median bimanual coordination scores were generally higher in older age groups, the pattern was not strictly linear across individual ages.”
“the score does not change with age because…”
Median Gap Score values showed variation across individual age groups. Correlation analysis demonstrated a weak but statistically significant negative association between age and Gap Score (ρ = −0.245, p = 0.007), indicating lower Gap Scores among older participants in the study sample.
H = 21.069, p < 0.001
H = 24.153, p < 0.001
Figure 8 shows a positive association between age and Transfer Index (Spearman’s ρ = 0.428, p < 0.001). The figure also presents exploratory differences across individual ages from 6 to 12 years. The Kruskal-Wallis statistic shown in the figure should be verified against the original statistical output and clearly distinguished from the three age-band analysis reported in Table 5.8.
Figure 8 displays individual Transfer Index values plotted against age. Although higher Transfer Index values were generally observed among older participants, considerable variability was present within each age group. This indicates that age was associated with, but did not fully explain, variation in Transfer Index scores.
H = 19.342, p < 0.001
H = 19.660, p = 0.003
Figure 9 shows a positive association between age and overall bimanual coordination score (Spearman’s ρ = 0.388, p < 0.001). Higher scores were generally observed among older participants; however, substantial variability was present within each age group. The Kruskal-Wallis statistic reported in the figure should be verified and clearly distinguished from the age-band analysis reported in Table 5.8. These findings indicate an association between age and bimanual coordination performance in the present sample.
“All major task-based measures ... improved significantly with age…”
This study assessed task-based tactile intermanual transfer, bimanual tapping, and bimanual coordination in 120 typically developing children aged 6-12 years. Age was significantly associated with Transfer Index, TIA intermanual accuracy, Gap Score, overall bimanual coordination, and selected bimanual coordination conditions. No statistically significant sex differences were observed for the reported outcomes.
“the split was close enough to support a reasonably powered comparison of sex-related differences.”
“Boys constituted 56.7% and girls 43.3% of the sample. The sex comparison should be interpreted cautiously because the study was not specifically powered to detect small sex-related differences.”
“supports the appropriateness of this age range for detecting behavioural change linked to callosal maturation.”
“supports the relevance of this age range for examining age-related differences in behavioural task performance.”
“information relayed ... via the corpus callosum typically incurs some loss…”
“The lower intermanual than intramanual accuracy may reflect the greater task demands involved when tactile information must be integrated across hands.”
“87.5% of children fell into the normal transfer category.”
“87.5% of participants had Transfer Index scores of 80% or higher.”
“small subgroup ... mild-to-moderate reductions in transfer efficiency”
“A subgroup of 15 participants had Transfer Index scores below 80%. The clinical meaning of these lower scores cannot be determined from this study alone.”
“the narrowing gap ... reflects maturing interhemispheric inhibitory control rather than a general motor-skill effect alone.”
“The lower anti-phase accuracy and the small median Gap Score are consistent with the greater coordination demands of anti-phase tapping. However, the present study cannot determine the specific neural mechanisms underlying this difference.”
“Performance ... declined across conditions of increasing demand, from a median of 50.00 in Condition 2 to 40.00 in Condition 3…”
“reflects a genuine, well-documented developmental process rather than a task-specific artefact.”
“These findings are consistent with prior developmental literature on bimanual coordination. However, because the present study is cross-sectional and Condition 1 showed no variability, the findings should be interpreted as age-related differences in task performance rather than direct evidence of a specific maturational mechanism.”
“Age correlated significantly with every major outcome…”
“Age was significantly associated with several major outcomes, including Transfer Index, TIA intermanual accuracy, Gap Score, overall bimanual coordination, and selected bimanual coordination conditions.”
“post-hoc pairwise comparisons have not yet been performed…”
“strengthens the case that age, rather than sex, is the primary developmental driver…”
“supports the use of a single, sex-combined normative scheme differentiated only by age.”
“Within this sample, no statistically significant sex differences were observed for the reported task outcomes. These findings do not establish that sex has no effect in the wider population and do not justify sex-combined normative standards without further validation in larger representative samples.”
“The findings are broadly consistent with previous reports of age-related differences in tactile transfer and bimanual coordination during childhood. In the present cross-sectional sample, several sensory and motor task measures were associated with age; however, longitudinal studies are required to determine within-child developmental trajectories.”
“performance ... are shaped primarily by age rather than sex”
“early signs of atypical interhemispheric development”
Overall, the findings indicate that age was associated with several sensory-transfer and bimanual-coordination outcomes in this sample, whereas no statistically significant sex differences were observed. Considerable individual variability was present within age groups. Lower scores should not be interpreted as evidence of atypical neurodevelopment because the study did not include clinical diagnostic assessment, longitudinal follow-up, or validated screening thresholds.
“they may be well suited to school-based or community screening…”
“Children ... could be flagged for closer monitoring…”
The tasks used in this study were brief and non-invasive and may be feasible for future research in school settings. However, the present findings do not establish the reliability, diagnostic accuracy, age-specific reference intervals, or clinical validity required for screening use. Future studies should evaluate these tasks in larger representative samples and in children with relevant neurodevelopmental conditions before considering clinical or school-based screening applications.
Additional limitations include convenience sampling, unequal representation across age groups, and the absence of neuroimaging or electrophysiological measures. Performance on behavioural tasks may also be influenced by attention, comprehension, fine-motor ability, task familiarity, and fatigue. The study did not include a clinical comparison group or reliability testing; therefore, its findings should be considered preliminary descriptive data rather than normative or diagnostic standards.
“Age, rather than sex, is the primary factor…”
“all improving significantly across the 6-12-year range.”
“provide a promising, age-referenced foundation for future normative and clinical use…”
In this cross-sectional sample of typically developing children aged 6-12 years, age was significantly associated with several task-based measures of tactile intermanual transfer and bimanual coordination, whereas no statistically significant sex differences were observed. These findings provide preliminary descriptive information on age-related patterns of task performance. They do not establish causal developmental change, corpus-callosum integrity, normative reference standards, diagnostic thresholds, or clinical screening utility.
Rewrite the result and Discussion section in thesis-ready language
say properly what to remove wt to add properly detailed check
The study included 120 participants. Of these, 59 (49.2%) were aged 6-8 years, 35 (29.2%) were aged 9-10 years, and 26 (21.7%) were aged 11-12 years. There were 68 boys (56.7%) and 52 girls (43.3%).
“This chart presents the distribution of number of males and females in the study…”
Figure 5 shows the sex distribution of the participants. Of the 120 participants, 68 (56.7%) were boys and 52 (43.3%) were girls.
“Middle age of the group is 9 years, and range of middle age is from 7 to 10 years.”
Figure 6 presents the distribution of participants across individual ages from 6 to 12 years. The largest groups were children aged 10 years (n = 25), 7 years (n = 24), and 8 years (n = 23), whereas the smallest group was children aged 9 years (n = 10).
“This chart depicts the impact of age on the results of performing such tasks…”
Gap Score: ρ = −0.245, p = 0.007
Figure 7 presents age-specific median values for Transfer Index, Gap Score, and overall bimanual coordination. Higher median Transfer Index and bimanual coordination scores were generally observed in older age groups, although the pattern was not strictly linear across all individual ages. Gap Score values also varied across age groups. Correlation analysis showed a weak but statistically significant negative association between age and Gap Score (ρ = −0.245, p = 0.007).
“people become better at performing transfer tasks…”
Figure 8 displays individual Transfer Index values across the age range of 6-12 years. Higher Transfer Index values were generally observed among older participants; however, considerable variation was present within each age group. This indicates that age was associated with, but did not fully explain, the variation in Transfer Index scores.
Figure 9 displays individual overall bimanual coordination scores across the age range of 6-12 years. Higher scores were generally observed among older participants, although considerable variability was present within each age group. These findings indicate that age was associated with overall bimanual coordination performance in the present sample.
Correlation between age and task-based measures of interhemispheric connectivity
Association Between Age and Task-Based Measures of Interhemispheric Function
Association Between Age and Tactile Intermanual Transfer and Bimanual Coordination Measures
“Score categories were based on [Author, Year].”
| Current wording | Safer wording |
|---|---|
| Normal transfer | Transfer Index ≥80% |
| Mild reduction | Transfer Index 60-79% |
| Moderate impairment | Transfer Index 40-59% |
| Severe impairment | Transfer Index <40% |
| Good bimanual independence | Gap Score <15% |
| Moderate coordination difficulty | Gap Score 15-30% |
| Significant coordination deficit | Gap Score >30% |
| Intact callosal function | Remove completely |
| Severe disconnection | Remove completely |
“Overall, the findings indicate generally good tactile intermanual transfer ability among the children, supporting effective sensory information transfer between the two hands.”
The median Transfer Index was 94.43% (IQR: 87.31-100.00), with values ranging from 47.05% to 100.00%. The results indicate variability in tactile intermanual transfer task performance within the study sample.
“Overall, the findings indicate that tactile intermanual transfer was generally well developed…”
Of the 120 participants, 105 (87.5%) had a Transfer Index score of 80% or higher. Twelve participants (10.0%) had scores between 60% and 79%, and three participants (2.5%) had scores between 40% and 59%. No participant had a Transfer Index score below 40%. The distribution of Transfer Index scores is presented in Table 5.3.
“reflecting good bimanual independence”
The median Gap Score was 4.00% (IQR: 1.00-6.60), with values ranging from 0% to 50%. In-phase accuracy was higher than anti-phase accuracy in the study sample, and Gap Score values varied between participants.
“marked impairment in bimanual tapping was uncommon within this group…”
A total of 113 participants (94.2%) had a Gap Score below 15%, five participants (4.2%) had scores between 15% and 30%, and two participants (1.7%) had scores above 30%. The distribution of Gap Scores is presented in Table 5.5.
Table 5.6 presents the descriptive statistics for bimanual coordination performance. Condition 1 showed no variability among participants and was therefore described only. The median score for Condition 2 was 50.00, the median score for Condition 3 was 40.00, and the median overall bimanual coordination score was 53.33. The interpretation of scores should be confirmed according to the original task protocol because the scoring direction and category cutoffs must be clearly stated.
“higher age was associated with better…”“increasing age and improved…”“age-related improvement…”
Spearman’s rank correlation analysis showed a significant positive association between age and Transfer Index (ρ = 0.428, p < 0.001), TIA intermanual accuracy (ρ = 0.543, p < 0.001), overall bimanual coordination score (ρ = 0.388, p < 0.001), bimanual coordination Condition 2 (ρ = 0.318, p < 0.001), and bimanual coordination Condition 3 (ρ = 0.337, p < 0.001). Age showed a significant negative association with Gap Score (ρ = −0.245, p = 0.007). These results indicate that age was associated with several tactile intermanual transfer and bimanual coordination measures in the present sample.
“Kruskal-Walli’s test”“the null hypothesis ... was rejected”“age appears to be an important factor associated with the development…”
The Kruskal-Wallis test showed statistically significant differences across the three predefined age groups for Transfer Index (H = 21.069, p < 0.001), TIA intermanual accuracy (H = 31.053, p < 0.001), Gap Score (H = 7.710, p = 0.021), overall bimanual coordination score (H = 19.342, p < 0.001), and Bimanual Coordination Condition 3 (H = 12.799, p = 0.002). These findings indicate that at least one age group differed from another for these measures. Post-hoc pairwise comparisons are required to identify the specific age groups that differed.
Mann-Whitney U test showed no statistically significant differences between boys and girls for Transfer Index (p = 0.717), Gap Score (p = 0.661), overall bimanual coordination score (p = 0.080), TIA intermanual accuracy (p = 0.631), or Bimanual Coordination Condition 3 (p = 0.590). Thus, no statistically significant sex differences were observed for the reported task-based outcomes in the present sample.
“The figure presents individual age-group analysis from 6 to 12 years, whereas Table 5.8 presents analysis across the three predefined age bands.”
| Outcome | Comparison | Adjusted p-value | Interpretation |
|---|---|---|---|
| Transfer Index | 6-8 vs 9-10 | [value] | Significant/not significant |
| Transfer Index | 6-8 vs 11-12 | [value] | Significant/not significant |
| Transfer Index | 9-10 vs 11-12 | [value] | Significant/not significant |
“all major task-based measures ... improved significantly with age…”
This cross-sectional study assessed tactile intermanual transfer, bimanual tapping, and bimanual coordination in 120 typically developing children aged 6-12 years. Age was significantly associated with Transfer Index, TIA intermanual accuracy, Gap Score, overall bimanual coordination score, and selected bimanual coordination conditions. No statistically significant sex differences were observed for the reported outcomes.
“the split was close enough to support a reasonably powered comparison of sex-related differences.”
Boys constituted 56.7% and girls 43.3% of the sample. The sex-related findings should be interpreted cautiously because the study was not specifically powered to detect small sex differences.
“detecting behavioural change linked to callosal maturation.”
“examining age-related differences in behavioural task performance.”
“information relayed ... via the corpus callosum typically incurs some loss...”
“normal transfer category”
“mild-to-moderate reductions in transfer efficiency”
Intramanual accuracy was higher than intermanual accuracy in the present sample. This may reflect greater task demands when tactile information must be integrated across hands. The median Transfer Index was 94.43%, and 87.5% of participants had scores of 80% or higher. However, lower scores should not be interpreted as evidence of neurological impairment because performance may be affected by attention, comprehension, tactile perception, language, and fine-motor ability.
“the narrowing gap ... reflects maturing interhemispheric inhibitory control rather than a general motor-skill effect alone.”
The lower anti-phase accuracy compared with in-phase accuracy is consistent with the greater coordination demands of anti-phase tapping. The present study cannot determine the specific neural mechanism responsible for this difference.
“reflects a genuine, well-documented developmental process rather than a task-specific artefact.”
The observed pattern is broadly consistent with previous literature on age-related differences in bimanual coordination. However, the present cross-sectional design cannot establish the specific developmental or neural mechanism underlying these findings.
“age, rather than sex, is the primary developmental driver…”
“supports the use of a single, sex-combined normative scheme…”
Within this sample, no statistically significant sex differences were observed in the reported task-based outcomes. These results do not establish that sex has no effect in the broader population and do not justify sex-combined normative standards without further research in larger representative samples.
“performance ... are shaped primarily by age rather than sex”
“early signs of atypical interhemispheric development”
The findings indicate that age was associated with several task-based outcomes in this sample, whereas no statistically significant sex differences were identified. Considerable variation was present within age groups. Lower task scores should not be interpreted as evidence of atypical neurodevelopment because the study did not include diagnostic assessment, clinical comparison groups, or longitudinal follow-up.
The tasks used in this study were brief, non-invasive, and feasible to administer in a school setting. They may be useful for future research investigating age-related patterns of tactile intermanual transfer and bimanual coordination. However, the present findings do not establish diagnostic thresholds, screening accuracy, or clinical reference standards. Further studies are required before these tasks can be considered for school-based or clinical screening.
Performance on behavioural tasks may be influenced by factors other than interhemispheric transfer and coordination, including attention, comprehension of instructions, language ability, fine-motor skill, motivation, fatigue, and familiarity with the task. Therefore, task scores should be interpreted as measures of observed behavioural performance rather than direct measures of corpus-callosum structure or brain connectivity.
Convenience sampling was used, and the age groups were not equally represented. Therefore, the study sample may not represent all school-aged children in the wider community. The findings should be generalized only to populations similar to the children included in this study.
The study included only typically developing children and did not include children with diagnosed neurodevelopmental or neurological conditions. Therefore, the study cannot determine whether the task measures distinguish typical from atypical development or whether they have diagnostic or screening value.
Test-retest reliability and inter-rater reliability were not assessed in the present study. Future research should evaluate the consistency of the task protocols and scoring methods before wider clinical application.
No neuroimaging or neurophysiological measures were used in this study. Therefore, the observed task performance cannot be interpreted as a direct measure of corpus-callosum anatomy, white-matter integrity, or functional brain connectivity.
In this cross-sectional sample of typically developing children aged 6-12 years, age was significantly associated with several task-based measures of tactile intermanual transfer and bimanual coordination. No statistically significant sex differences were observed for the reported measures. The study provides preliminary descriptive information on age-related patterns of behavioural task performance in the sampled children. It does not establish causal developmental change, corpus-callosum integrity, normative reference standards, diagnostic cutoffs, or screening utility.
The task-based measures showed age-related differences in tactile intermanual transfer and bimanual coordination among typically developing children aged 6-12 years. These findings are preliminary behavioural observations from a cross-sectional sample and should not be interpreted as direct evidence of corpus-callosum integrity, neurological impairment, diagnostic status, or screening ability.
Create a final corrected Results chapterst
python3 - <<'PY' from docx import Document p='/tmp/workspace/attachments/ba2e5cad-efb8-42ec-a4cc-192bd932f29d/final book thesis.docx' d=Document(p) for idx in range(9,18): t=d.tables[idx] print('\nTABLE',idx+1) for r in t.rows: print(' | '.join(' '.join(c.text.split()) for c in r.cells)) PY
interhemispheric transfer children
STROBE cross-sectional study report results summary measures associations guidelines
| Variable | Frequency (n) | Percentage (%) |
|---|---|---|
| Age group | ||
| 6-8 years | 59 | 49.2 |
| 9-10 years | 35 | 29.2 |
| 11-12 years | 26 | 21.7 |
| Sex | ||
| Boys | 68 | 56.7 |
| Girls | 52 | 43.3 |
| Total | 120 | 100.0 |
| Variable | Median (IQR) | Range |
|---|---|---|
| Tactile intramanual accuracy (%) | 95.00 (75.00-100.00) | 20-100 |
| Tactile intermanual accuracy (%) | 85.00 (65.00-100.00) | 15-100 |
| Transfer Index (%) | 94.43 (87.31-100.00) | 47.05-100 |
| Transfer Index category | Frequency (n) | Percentage (%) |
|---|---|---|
| ≥80% | 105 | 87.5 |
| 60-79% | 12 | 10.0 |
| 40-59% | 3 | 2.5 |
| <40% | 0 | 0.0 |
| Total | 120 | 100.0 |
Note: Use neutral score-category labels unless the terms “normal,” “mild reduction,” and “impairment” are supported by a validated published scoring source.
| Bimanual tapping measure | Median (IQR) | Range |
|---|---|---|
| In-phase accuracy (%) | 100.00 (96.45-100.00) | 66.60-100 |
| Anti-phase accuracy (%) | 94.00 (90.00-100.00) | 50-100 |
| Gap Score (%) | 4.00 (1.00-6.60) | 0-50 |
| Gap Score category | Frequency (n) | Percentage (%) |
|---|---|---|
| <15% | 113 | 94.2 |
| 15-30% | 5 | 4.2 |
| >30% | 2 | 1.7 |
| Total | 120 | 100.0 |
Note: If your categories are not from a validated source, do not call values above 30% a “significant coordination deficit.” Report the score ranges only.
| Bimanual coordination measure | Mean ± SD | Median (IQR) | Range |
|---|---|---|---|
| Condition 1 | 67.00 ± 0.00 | 67.00 | 67-67 |
| Condition 2 | 52.77 ± 14.93 | 50.00 (43.00-63.00) | 20.00-86.60 |
| Condition 3 | 41.38 ± 14.76 | 40.00 (30.00-50.00) | 10.00-86.60 |
| Overall average bimanual coordination | 53.79 ± 7.90 | 53.33 (48.62-60.25) | 32.30-77.90 |
| Variable | Spearman’s ρ | p-value |
|---|---|---|
| Transfer Index | 0.428 | <0.001 |
| Tactile intermanual accuracy | 0.543 | <0.001 |
| Gap Score | -0.245 | 0.007 |
| Overall average bimanual coordination | 0.388 | <0.001 |
| Bimanual coordination Condition 2 | 0.318 | <0.001 |
| Bimanual coordination Condition 3 | 0.337 | <0.001 |
| Outcome | Kruskal-Wallis H | p-value | Result |
|---|---|---|---|
| Transfer Index | 21.069 | <0.001 | Significant |
| Tactile intermanual accuracy | 31.053 | <0.001 | Significant |
| Gap Score | 7.710 | 0.021 | Significant |
| Overall average bimanual coordination | 19.342 | <0.001 | Significant |
| Bimanual coordination Condition 3 | 12.799 | 0.002 | Significant |
Important: Perform Dunn’s post-hoc pairwise analysis with Bonferroni or Holm correction before final submission. Until that is done, do not state which specific age group performed better or worse.
| Outcome | p-value | Result |
|---|---|---|
| Transfer Index | 0.717 | Not significant |
| Gap Score | 0.661 | Not significant |
| Overall average bimanual coordination | 0.080 | Not significant |
| Tactile intermanual accuracy | 0.631 | Not significant |
| Bimanual coordination Condition 3 | 0.590 | Not significant |