Developmental motor pattern
Hypotonia, delayed gross-motor acquisition, balance and coordination differences, motor planning, endurance, and support needs.
PHENOTYPE · MOVEMENT
Movement phenotypes extend beyond hypotonia.
The record separates baseline tone and coordination from foot structure, laterality, pain, episodic change, tic-like movements, stereotypies, captured nonepileptic events, medication effects, loss of mobility, and recovery.
31 + 8 + 22 = 61positive only + positive with negative / unresolved + unreported
39 + 22 = 61source-mapped + unreported
7mapped cells with a formal-record anchor; not an additional person state
MOVEMENT PHENOTYPE
Six layers should be recorded separately.
The same person may appear in several layers. These are observed clinical forms, not mutually exclusive diagnoses.
Tone, posture and laterality
Hypotonia and hypertonia, asymmetric posture or weakness, unilateral foot or leg dragging, inward turning, and side-specific tightness.
Gait, feet, connective and orthopaedic findings
Toe walking, congenital clubfoot, flat or flat-valgus feet, tibial varus, joint laxity or hypermobility, subluxation or dislocation, toe morphology, AFOs, fracture, pain, and contracture.
Tics, stereotypies and complex movements
Facial or neck tic-like movements, repetitive arm or hand movements, jaw opening, posturing, scratching, and other complex movements whose classification varies by context.
Pain, fatigue and episodic loss
Pain-limited movement, deconditioning, state-linked weakness or postural change, episodic loss of mobility, and recovery to a prior or new baseline.
Oculomotor and sensory-motor output
Vision or ocular-motor findings, sensory load, body-position effects, and the difference between motor capacity and performance in a specific state.
TICS & COMPLEX MOVEMENTS
Describe the movement before assigning the label.
Tic-like, stereotyped, dystonic, compulsive, sensory-regulatory, pain-related, medication-associated, and seizure-related movements can look similar in a brief encounter.
One deep-record history describes facial and neck tic-like movements emerging during stimulant treatment and resolving after the medicine was stopped. That time course is clinically relevant; it does not establish an ASH1L-specific adverse effect.
A 24-hour ambulatory vEEG reportedly captured the person’s typical repetitive arm or hand movements and jaw opening without an electrographic seizure correlate. This classifies the captured events, not every future event.
A 2022 family-based and case-control study reported an association between ASH1L variation and Tourette-syndrome susceptibility in a Han Chinese sample. It is a risk-association study, not proof that tic-like movements in ASH1L-related neurodevelopmental disorder share one mechanism.
Liu et al., 2022 ↗FEET & LOWER LIMBS
Structure, gait, support, and bone history are different data.
STRUCTURE
Congenital unilateral clubfoot; flat or flat-valgus feet; historical tibial varus; toe webbing; altered toe or nail morphology; and relatively small feet.
GAIT & OUTPUT
Toe walking; unilateral foot or leg dragging; inward turning; asymmetric coordination; and difficulty lifting one foot.
SUPPORT
AFO use, orthopaedic high-top shoes, physiotherapy, targeted ankle support, and changes in support need across time.
BONE & CONTRACTURE
Fracture history, reduced weight-bearing, later tightness or contracture, pain, and the distinction between primary motor and secondary orthopaedic limitation.
CONNECTIVE & STRUCTURAL PHENOTYPE
Joint laxity, skin, bone, and foot structure must remain visible—and separately attributed.
The source corpus includes hypermobility or loose joints, recurrent subluxation, hEDS diagnoses, pes planovalgus or clubfoot, soft or stretchy skin, scoliosis or vertebral findings, low-trauma fracture, osteopenia, pain, and tendon injury. These features are not uniformly assessed.
What is directly recorded
One formal genetics assessment documents clinical hEDS with joint pain, subluxations or dislocations, low-trauma fractures, tendonitis, Madelung deformity, and kyphoscoliosis. Other histories range from generalized laxity to isolated structural findings.
What must stay separate
Some people have separately tracked elastopathy, autoimmune, skeletal, nutritional, mobility, or medication co-factors. A connective diagnosis or feature cannot be assigned to ASH1L without controlling those explanations.
What to measure
Standardized joint examination, pain and dislocation history, skin and wound phenotype, foot and spine assessment, fracture mechanism, bone density and mineral context, mobility, puberty, and relevant co-finding review.
SEX-SPECIFIC SOURCE COVERAGE
The male and female records are not equally deep.
This table reports whether the movement domain is represented in the source set. It does not compare phenotype frequency or severity.
Source domainFemale roster · N=24Male roster · N=37
Motor / tone / gait / vision
16 + 8 = 24mapped + unreported5 formal-record anchors within mapped
23 + 14 = 37mapped + unreported2 formal-record anchors within mapped
MEASUREMENT PLAN
Classify baseline, event, pain, laterality, and recovery separately.
Baseline examination
Tone, strength, reflexes, coordination, range of motion, pain, feet, vision, gait, and current supports.
Event capture
Video when safe, awareness, suppressibility, urge, rhythm, distribution, state, medication timing, and EEG only when the event phenotype supports it.
Within-person change
Repeat the same task and laterality measures during baseline, flare, treatment or recovery rather than relying on a global impression.
Targeted testing
Orthopaedic imaging, EMG or nerve studies, metabolic evaluation, sleep or seizure capture, and pain assessment according to the clinical question.
MUSCLE BIOLOGY CONTEXT
Ash1l supports myoblast fusion in mouse models, but that experiment does not establish a primary myopathy or explain every human tone, gait, fatigue, or recovery finding.