القائمة
Workstation and workspace layout design skill with ergonomic optimization.
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npx skills add https://github.com/a5c-ai/babysitter --skill workstation-layout-designerيبقى الأمر في سطر واحد. مرّر أفقيًا لمراجعته كاملًا قبل النسخ.
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Reference for querying the Atlas knowledge graph through its MCP tools — the SECONDARY enrichment/comparison layer that adds best-practice context to systems you have ALREADY scanned from your real sources (`az`, repos, dirs). Use when you need to look up nodes, edges, kinds, clusters, stats, or wiki pages in Atlas to compare against your real inventory. (atlas graph, query atlas, atlas mcp, search the graph, graph neighbors, atlas record, atlas kinds, enrichment layer)
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This skill should be used when the user asks to "find skills in the wild", "assimilate popular workflows", "discover SKILL.md files in repos", "research external skills", "find workflow patterns", "survey the skill landscape", "what skills exist out there", or wants to investigate public repositories for extractable processes, babysitter plugins, and reusable procedural insights. Searches GitHub for SKILL.md files, classifies repos by archetype, and maintains structured research under docs/reference-repos/.
عرض SKILL.md
| name | workstation-layout-designer |
| description | Workstation and workspace layout design skill with ergonomic optimization. |
| allowed-tools | Bash(*) Read Write Edit Glob Grep WebFetch |
| metadata | {"author":"babysitter-sdk","version":"1.0.0","category":"ergonomics","backlog-id":"SK-IE-023"} |
| graph | {"domains":["domain:industrial-engineering"],"skillAreas":["skill-area:statistical-analysis","skill-area:organizational-design","skill-area:data-analysis"],"roles":["role:operations-analyst","role:research-engineer"]} |
You are workstation-layout-designer - a specialized skill for designing ergonomic workstations and workspace layouts.
This skill enables AI-powered workstation design including:
dataclasses dataclass
typing ,
math
:
name:
frequency:
size:
weight:
requires_precision: =
():
zones = {
: {
: ,
: forward_reach * ,
: ,
: ,
:
},
: {
: ,
: forward_reach * ,
: ,
: ,
:
},
: {
: ,
: forward_reach * ,
: ,
: ,
:
},
: {
: ,
: forward_reach * ,
: ,
: ,
:
}
}
zones
():
assignments = {zone: [] zone zones}
item items:
item.frequency == :
assignments[].append(item)
item.frequency == :
assignments[].append(item) item.requires_precision \
assignments[].append(item)
item.frequency == :
assignments[].append(item)
:
assignments[].append(item)
assignments
def optimize_tool_placement(tools: List[WorkItem], work_area_width: float,
work_area_depth: float, dominant_hand: str = "right"):
"""
Optimize placement of tools in work area
"""
placements = []
# Sort by frequency
sorted_tools = sorted(tools,
key=lambda t: ["continuous", "frequent", "occasional", "rare"].index(t.frequency))
# Primary zone dimensions
primary_width = work_area_width * 0.4
primary_depth = work_area_depth * 0.3
x_position = 0 if dominant_hand == "right" else work_area_width
direction = 1 if dominant_hand == "right" else -1
current_x = work_area_width / 2
current_y = work_area_depth * 0.2 # Near front edge
for tool in sorted_tools:
if tool.frequency in ["continuous", "frequent"]:
# Place in primary zone
zone = "primary"
y = current_y
x = current_x
current_x += (tool.size[0] + 2) * direction # Add spacing
elif tool.frequency == "occasional":
# Place in secondary zone
zone = "secondary"
y = work_area_depth * 0.5
x = current_x
else:
# Place in tertiary zone
zone = "tertiary"
y = work_area_depth * 0.8
x = current_x
placements.append({
"item": tool.name,
"x": round(x, 1),
"y": round(y, 1),
"zone": zone,
"orientation": "handle toward user" if tool.weight > 2 else "any"
})
return placements
def design_visual_layout(viewing_distance: float, task_type: str):
"""
Design layout considering visual requirements
task_type: "precision", "inspection", "monitoring", "general"
"""
visual_specs = {
"precision": {
"viewing_distance_inches": (10, 16),
"viewing_angle_down": (15, 35),
"illumination_lux": (500, 1000),
"display_tilt": "15-20 degrees toward user",
"notes": "May require task lighting and magnification"
},
"inspection": {
"viewing_distance_inches": (14, 20),
"viewing_angle_down": (15, 30),
"illumination_lux": (750, 1500),
"display_tilt": "Perpendicular to line of sight",
"notes": "Avoid glare on inspected surfaces"
},
"monitoring": {
"viewing_distance_inches": (20, 28),
"viewing_angle_down": (0, 20),
"illumination_lux": (300, 500),
"display_tilt": "Top tilted slightly away",
"notes": "Displays within 30 degrees of center"
},
"general": {
"viewing_distance_inches": (16, 24),
"viewing_angle_down": (0, 30),
"illumination_lux": (300, 500),
"display_tilt": "Adjustable",
"notes": "Standard office requirements"
}
}
specs = visual_specs.get(task_type, visual_specs["general"])
# Visual cone calculations
visual_cone = {
"optimal_cone": 15, # degrees - best visual acuity
"comfortable_cone": 30, # degrees - comfortable viewing
"maximum_cone": 60 # degrees - peripheral detection only
}
return {
"specifications": specs,
"visual_cone": visual_cone,
"layout_guidance": generate_visual_layout_guidance(specs, visual_cone)
}
def generate_visual_layout_guidance(specs, cone):
"""Generate specific layout guidance"""
return [
f"Primary displays within {cone['optimal_cone']}° of centerline",
f"Secondary displays within {cone['comfortable_cone']}° of centerline",
f"Viewing distance: {specs['viewing_distance_inches'][0]}-{specs['viewing_distance_inches'][1]} inches",
f"Display tilt: {specs['display_tilt']}",
f"Illumination: {specs['illumination_lux'][0]}-{specs['illumination_lux'][1]} lux"
]
def design_workstation(task_characteristics: dict, duration_hours: float):
"""
Design workstation based on task and duration
task_characteristics:
- precision_required: bool
- force_required: bool
- mobility_required: bool
- visual_demands: str ("high", "medium", "low")
"""
recommendations = {
"posture": None,
"work_surface_height": None,
"chair_specifications": None,
"standing_mat": False,
"sit_stand_option": False
}
# Determine posture
if task_characteristics.get('precision_required') and duration_hours > 2:
recommendations["posture"] = "seated"
recommendations["reason"] = "Precision work benefits from stable seated posture"
elif task_characteristics.get('force_required'):
recommendations["posture"] = "standing"
recommendations["reason"] = "Force tasks benefit from standing to use body weight"
elif task_characteristics.get('mobility_required'):
recommendations["posture"] = "standing"
recommendations["reason"] = "Mobility needs favor standing"
elif duration_hours > 4:
recommendations["sit_stand_option"] = True
recommendations["posture"] = "sit-stand"
recommendations["reason"] = "Extended duration benefits from posture variety"
else:
recommendations["posture"] = "seated"
recommendations["reason"] = "Default for moderate duration tasks"
# Work surface height
if recommendations["posture"] == "seated":
recommendations["work_surface_height"] = {
"fixed": 29, # inches, standard desk
"adjustable_range": (24, 32),
"keyboard_tray": "Recommended for computer work"
}
recommendations["chair_specifications"] = {
"seat_height_range": (16, 21),
"seat_depth_range": (15, 18),
"lumbar_support": "Required",
"armrests": "Adjustable, removable preferred"
}
elif recommendations["posture"] == "standing":
recommendations["work_surface_height"] = {
"fixed": 42, # inches
"adjustable_range": (38, 48)
}
recommendations["standing_mat"] = True
recommendations["footrest"] = "Provide for weight shifting"
else: # sit-stand
recommendations["work_surface_height"] = {
"adjustable_range": (24, 48),
"adjustment_type": "Electric preferred for frequent changes"
}
recommendations["chair_specifications"] = {
"type": "Height-adjustable stool with back support",
"seat_height_range": (20, 32)
}
recommendations["standing_mat"] = True
return recommendations
def specify_adjustable_workstation(user_population: str, task_type: str):
"""
Create specification for adjustable workstation
user_population: "single_user", "multi_user", "general"
"""
specifications = {
"work_surface": {
"width_inches": 60,
"depth_inches": 30,
"height_range_inches": (24, 48) if user_population != "single_user" else (26, 32),
"adjustment_mechanism": "Electric" if user_population == "multi_user" else "Manual crank",
"memory_positions": 3 if user_population == "multi_user" else 0,
"load_capacity_lbs": 150
},
"monitor_arm": {
"height_range_inches": (4, 16),
"depth_range_inches": (4, 20),
"tilt_range_degrees": (-90, 90),
"swivel_range_degrees": 360,
"weight_capacity_lbs": 25
},
"keyboard_tray": {
"width_inches": 26,
"height_adjustment_inches": (-4, 2),
"tilt_range_degrees": (-15, 15),
"swivel_range_degrees": (-15, 15)
},
"chair": {
"seat_height_range_inches": (16, 21),
"seat_depth_adjustment_inches": 3,
"lumbar_height_adjustment_inches": 4,
"armrest_height_adjustment_inches": 4,
"armrest_width_adjustment_inches": 2
}
}
# Task-specific modifications
if task_type == "precision":
specifications["work_surface"]["depth_inches"] = 24 # Bring work closer
specifications["task_light"] = {
"type": "Adjustable arm",
"lux": 1000,
"color_temperature_kelvin": 5000
}
elif task_type == "assembly":
specifications["work_surface"]["load_capacity_lbs"] = 300
specifications["anti_fatigue_mat"] = True
return specifications
def generate_layout_specification(workstation_design: dict, items: List[WorkItem]):
"""
Generate textual layout specification for CAD or drawing
"""
layout = {
"drawing_title": "Workstation Layout",
"dimensions": {
"overall_width": workstation_design.get("width", 60),
"overall_depth": workstation_design.get("depth", 30),
"work_surface_height": workstation_design.get("height", 29)
},
"zones": [],
"item_placements": [],
"annotations": []
}
# Add zone boundaries
zones = design_work_zones(24, 18) # Default reach dimensions
for zone_name, zone_data in zones.items():
layout["zones"].append({
"name": zone_name,
"type": "arc",
"radius": zone_data["radius"],
"angle": zone_data["arc"],
"style": "dashed"
})
# Add item placements
placements = optimize_tool_placement(items, 60, 30)
for placement in placements:
layout["item_placements"].append({
"name": placement["item"],
"position": (placement["x"], placement["y"]),
"symbol": "rectangle"
})
# Add annotations
layout["annotations"] = [
{"text": "Primary Zone", "position": (30, 8)},
{"text": "Secondary Zone", "position": (30, 15)},
{"text": "Operator Position", "position": (30, 2), "symbol": "circle"}
]
return layout
This skill integrates with the following processes:
workstation-design-optimization.js5s-workplace-organization-implementation.js{
"workstation_type": "Seated Adjustable",
"work_surface": {
"dimensions": {"width": 60, "depth": 30},
"height_range": [24, 32]
},
"zones": {
"primary_radius": 9.6,
"secondary_radius": 15.6
},
"item_placements": [
{"item": "Keyboard", "x": 30, "y": 6, "zone": "primary"},
{"item": "Phone", "x": 50, "y": 8, "zone": "secondary"}
],
"chair_specs": {
"seat_height_range": [16, 21],
"lumbar_support": true
}
}