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electricalwith-tool

Poe Fibre Field Cabinet Power Package

Calculates deterministic SSC-05 field cabinet metrics from a task-owned synthetic source pack. The template combines PoE device load, switch budget, UPS runtime, cabinet thermal rise, fibre link loss, optical margin, and an overall synthetic pass score.

with-tool: The model is given an executable Python calculator script.

Standards

PoE budget workflow fibre link-loss budget workflow field cabinet UPS autonomy workflow

Tags

deterministic electrical fibre field-cabinet optical poe thermal ups

How this task is generated

One template produces many comparable benchmark tasks while keeping the scoring contract fixed.

01
Template
The reusable contract shown on this page.
02
Scenario
An archetype and site context are sampled.
03
Difficulty tier
Inputs may be hidden at harder tiers.
04
Task prompt
The model responds with the declared outputs.

Parameters

Inputs the model receives, and the outputs it is scored on.

Inputs

23 inputs

Always given

Included directly in every task prompt.

23

Show 23 inputs

Camera count
camera_count
DEVICE-05-SCHED-06 PoE camera count
14
Camera poe
camera_poe_w
DEVICE-05-SCHED-06 camera PoE allocation
24 W
Radio count
radio_count
DEVICE-05-SCHED-06 radio count
3
Radio poe
radio_poe_w
DEVICE-05-SCHED-06 radio PoE allocation
42 W
Controller count
controller_count
DEVICE-05-SCHED-06 controller count
2
Controller poe
controller_poe_w
DEVICE-05-SCHED-06 controller PoE allocation
31 W
Poe budget
poe_budget_w
POE-05-SWITCH-06 available switch PoE budget
670 W
Ups nominal
ups_nominal_kwh
UPS-05-CAB-06 nominal UPS energy
2.7 kWh
Ups usable fraction
ups_usable_fraction
UPS-05-CAB-06 usable battery fraction
0.82
Inverter efficiency
inverter_efficiency
UPS-05-CAB-06 inverter efficiency
0.992
Non poe load
non_poe_load_w
NET-05-TOPO-06 non-PoE cabinet load
115 W
Required runtime
required_runtime_h
UPS-05-CAB-06 required backup runtime
2 h
Switch heat
switch_heat_w
POE-05-SWITCH-06 switch heat contribution
65 W
Cabinet thermal w per c
cabinet_thermal_w_per_c
UPS-05-CAB-06 cabinet thermal dissipation
80 W/C
Max temperature rise
max_temperature_rise_c
UPS-05-CAB-06 maximum cabinet temperature rise
15 C
Fibre length
fibre_length_km
FIBRE-05-PATH-06 fibre path length
7.4 km
Fibre loss db per km
fibre_loss_db_per_km
FIBRE-05-PATH-06 cable attenuation
0.35 dB/km
Splice count
splice_count
FIBRE-05-PATH-06 splice count
7
Splice loss
splice_loss_db
FIBRE-05-PATH-06 loss per splice
0.1 dB
Connector count
connector_count
FIBRE-05-PATH-06 connector count
4
Connector loss
connector_loss_db
FIBRE-05-PATH-06 loss per connector
0.5 dB
Patch loss
patch_loss_db
FIBRE-05-PATH-06 patch-panel allowance
0.06 dB
Optical budget
optical_budget_db
FIBRE-05-PATH-06 available optical budget
10 dB

Scored outputs

11 outputs

Poe load w

poe_load_w

Total PoE load from the device schedule

Scores if within ±3% of the reference value.

Poe budget margin w

poe_budget_margin_w

Available PoE budget minus total PoE load

Scores if within ±3% of the reference value.

Usable ups energy kwh

usable_ups_energy_kwh

Usable UPS energy after battery and inverter factors

Scores if within ±3% of the reference value.

Ups runtime hr

ups_runtime_hr

UPS runtime for PoE plus non-PoE cabinet loads

Scores if within ±3% of the reference value.

Runtime margin hr

runtime_margin_hr

UPS runtime minus required runtime

Scores if within ±3% of the reference value.

Cabinet heat w

cabinet_heat_w

Cabinet heat load

Scores if within ±3% of the reference value.

Cabinet temp rise c

cabinet_temp_rise_c

Cabinet temperature rise

Scores if within ±3% of the reference value.

Temperature margin c

temperature_margin_c

Maximum cabinet temperature rise minus calculated rise

Scores if within ±3% of the reference value.

Fibre loss db

fibre_loss_db

Fibre path loss

Scores if within ±3% of the reference value.

Optical margin db

optical_margin_db

Available optical budget minus fibre path loss

Scores if within ±3% of the reference value.

Overall pass score

overall_pass_score

1.0 when PoE, runtime, temperature, and optical margins are non-negative

Scores if within ±0.1% of the reference value.

Difficulty

Each template is sampled at three tiers. Harder tiers may hide inputs, forcing the model to infer them from the scenario description.

All inputs remain visible at every tier

For this template, difficulty scales through parameter and scenario ranges rather than hidden information.

easy:: All source-pack values given for the SSC-05 PoE/fibre field cabinet package
medium:: All source-pack values given for the SSC-05 PoE/fibre field cabinet package
hard:: All source-pack values given for the SSC-05 PoE/fibre field cabinet package

Task bundle

The exact instruction and parameter contract used to generate this task, pinned to the published library source.

/workspace

instruction.md
poe-fibre-field-cabinet-power-package_calc.py

Teal lines show Jinja input conditions, not task visibility policy. A line renders only when that input or tool is visible.

1You are an electrical design engineer checking `SSC-05-LH-06`, a task-owned synthetic SSC-05 PoE, fibre, and field cabinet power package.2 3Use only the task-owned synthetic source pack values below for numeric grading. PoE-budget, fibre-link, field-cabinet, and UPS autonomy workflows shape the context only; this instance does not run those tools or parse a real network topology, fibre loss sheet, or UPS export.4 5## Scene6 7- Design case: `CASE-SSC05-POE-FIBRE-06`8- Device schedule: `DEVICE-05-SCHED-06`9- Network topology: `NET-05-TOPO-06`10- PoE switch schedule: `POE-05-SWITCH-06`11- Fibre path table: `FIBRE-05-PATH-06`12- Battery or UPS data sheet: `UPS-05-CAB-06`13- Field cabinet memo: `MEMO-05-CABINET-06`14 15## Source Values16 17| Item | Value |18|------|-------|19| Camera count | {{ camera_count }} |20| Camera PoE allocation | {{ camera_poe_w }} W |21| Radio count | {{ radio_count }} |22| Radio PoE allocation | {{ radio_poe_w }} W |23| Controller count | {{ controller_count }} |24| Controller PoE allocation | {{ controller_poe_w }} W |25| PoE budget | {{ poe_budget_w }} W |26| UPS nominal energy | {{ ups_nominal_kwh }} kWh |27| UPS usable fraction | {{ ups_usable_fraction }} |28| Inverter efficiency | {{ inverter_efficiency }} |29| Non-PoE load | {{ non_poe_load_w }} W |30| Required runtime | {{ required_runtime_h }} h |31| Switch heat | {{ switch_heat_w }} W |32| Cabinet thermal dissipation | {{ cabinet_thermal_w_per_c }} W/C |33| Maximum temperature rise | {{ max_temperature_rise_c }} C |34| Fibre length | {{ fibre_length_km }} km |35| Fibre loss | {{ fibre_loss_db_per_km }} dB/km |36| Splice count | {{ splice_count }} |37| Splice loss | {{ splice_loss_db }} dB |38| Connector count | {{ connector_count }} |39| Connector loss | {{ connector_loss_db }} dB |40| Patch loss | {{ patch_loss_db }} dB |41| Optical budget | {{ optical_budget_db }} dB |42 43Checks:44 45- PoE load equals camera, radio, and controller PoE loads.46- Usable UPS energy equals `ups_nominal_kwh x ups_usable_fraction x inverter_efficiency`.47- UPS runtime equals usable UPS energy divided by PoE plus non-PoE load.48- Cabinet temperature rise equals cabinet heat divided by thermal dissipation.49- Fibre loss equals cable, splice, connector, and patch losses.50- Overall pass score is `1.0` only when PoE, runtime, temperature, and optical margins are non-negative; otherwise it is `0.0`.51 52## Output Format53 54Write a compact memo to `/workspace/output.md`. Preserve the object IDs above, state the task-owned synthetic source-pack boundary, and explain whether the baseline source pack passes the docs-only checks.55 56Do not claim authority approval, accepted project evidence, software export validity, full standards compliance, executable real source-pack parsing, generated software evidence, generated benchmark readiness, or benchmark readiness.57 58Include a fenced JSON block with exactly these numeric keys:59 60```json61{62  "poe_load_w": <numeric_value>,63  "poe_budget_margin_w": <numeric_value>,64  "usable_ups_energy_kwh": <numeric_value>,65  "ups_runtime_hr": <numeric_value>,66  "runtime_margin_hr": <numeric_value>,67  "cabinet_heat_w": <numeric_value>,68  "cabinet_temp_rise_c": <numeric_value>,69  "temperature_margin_c": <numeric_value>,70  "fibre_loss_db": <numeric_value>,71  "optical_margin_db": <numeric_value>,72  "overall_pass_score": <numeric_value>73}74```75

Scenario archetypes

Each generated task is drawn from one of these realistic scenario bands.

Site contexts ground each scenario in a real locale the model can use to infer hidden values.

Ssc05 poe fibre case

ssc05_poe_fibre_case

PoE/fibre cabinet package tied to one device schedule, topology, PoE switch schedule, fibre path, UPS sheet, and memo

poe-fibre-field-cabinet

Parameter ranges

camera_count: 14
camera_poe_w: 24
radio_count: 3
radio_poe_w: 42
controller_count: 2
controller_poe_w: 31
poe_budget_w: 670
ups_nominal_kwh: 2.7
ups_usable_fraction: 0.82
inverter_efficiency: 0.992
non_poe_load_w: 115
required_runtime_h: 2
switch_heat_w: 65
cabinet_thermal_w_per_c: 80
max_temperature_rise_c: 15
fibre_length_km: 7.4
fibre_loss_db_per_km: 0.35
splice_count: 7
splice_loss_db: 0.1
connector_count: 4
connector_loss_db: 0.5
patch_loss_db: 0.06
optical_budget_db: 10

Example task

poe-fibre-field-cabinet-ssc05-poe-fibre-case-preview — hard difficulty, all inputs given.

PoE/fibre cabinet package tied to one device schedule, topology, PoE switch schedule, fibre path, UPS sheet, and memo. poe-fibre-field-cabinet. Required outputs: poe_load_w, poe_budget_margin_w, usable_ups_energy_kwh, ups_runtime_hr, runtime_margin_hr, cabinet_heat_w

The model sees

Scenario context and visible inputs.

camera_count: 14 to 14
camera_poe_w: 24 to 24 W
radio_count: 3 to 3
radio_poe_w: 42 to 42 W
controller_count: 2 to 2
controller_poe_w: 31 to 31 W
poe_budget_w: 670 to 670 W
ups_nominal_kwh: 2.7 to 2.7 kWh
ups_usable_fraction: 0.82 to 0.82
inverter_efficiency: 0.992 to 0.992
non_poe_load_w: 115 to 115 W
required_runtime_h: 2 to 2 h
switch_heat_w: 65 to 65 W
cabinet_thermal_w_per_c: 80 to 80 W/C
max_temperature_rise_c: 15 to 15 C
fibre_length_km: 7.4 to 7.4 km
fibre_loss_db_per_km: 0.35 to 0.35 dB/km
splice_count: 7 to 7
splice_loss_db: 0.1 to 0.1 dB
connector_count: 4 to 4
connector_loss_db: 0.5 to 0.5 dB
patch_loss_db: 0.06 to 0.06 dB
optical_budget_db: 10 to 10 dB

Executable tool: poe-fibre-field-cabinet-power-package_calc.py

The model must infer

Inputs withheld at this difficulty.

Nothing. All inputs are supplied.

The model must produce

The scored JSON answer schema.

{
  "poe_load_w": <number>,
  "poe_budget_margin_w": <number>,
  "usable_ups_energy_kwh": <number>,
  "ups_runtime_hr": <number>,
  "runtime_margin_hr": <number>,
  "cabinet_heat_w": <number>,
  "cabinet_temp_rise_c": <number>,
  "temperature_margin_c": <number>,
  "fibre_loss_db": <number>,
  "optical_margin_db": <number>,
  "overall_pass_score": <number>
}

poe_load_w · scored within ±3%
poe_budget_margin_w · scored within ±3%
usable_ups_energy_kwh · scored within ±3%
ups_runtime_hr · scored within ±3%
runtime_margin_hr · scored within ±3%
cabinet_heat_w · scored within ±3%
cabinet_temp_rise_c · scored within ±3%
temperature_margin_c · scored within ±3%
fibre_loss_db · scored within ±3%
optical_margin_db · scored within ±3%
overall_pass_score · scored within ±0.1%