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Frequency Weights

An inspectable candidate factorization for turning a measured spectrum into endpoint-specific weighted input.

w_L is an imported BERM bridge proposal, not a result derived from the 2025 Lindgren geometry. The L2 operator remains open. The controls below are illustrative scenarios, not fitted biological weights.

1. Candidate equation

w_L(endpoint, f) = SAR_norm(f) × coupling(endpoint, f) × modulation(f)

SAR_norm

Spectrum- and geometry-specific absorption term. Requires a defined body, posture and dosimetry.

coupling

Endpoint-specific biological coupling proposal. It is not interchangeable with SAR.

modulation

Candidate factor for waveform, pulsing and duty cycle. Requires measured temporal structure.

2. Scenario tool

The tool shows only the sensitivity of the product rule. Changing a value does not estimate exposure, dose or a health effect.

Frequency-weight scenario explorer

Explore how three bounded candidate factors combine multiplicatively. This is a transparent arithmetic sandbox, not a dosimetry result or evidence of biological effect.

Carrier / band
900 MHz
Modulation description
217 Hz TDMA pulse

Multiplicative candidate formula

w_L = SAR_norm × VGCC_coupling × MOD_envelope

0.45 × 0.80 × 1.00 = 0.360

Adjust all three factors
0.45
0.80
1.00

Composite scenario weight

ILLUSTRATIVE_SCENARIO · GSM900

0.360

Technology comparison

Every row uses editable illustrative inputs. Selecting a row opens its three factors above.

ILLUSTRATIVE_SCENARIO

3. Measurement chain

  1. 1Measure the local spectrum, vectors, phase/coherence and duty cycle with provenance.
  2. 2Specify body- and endpoint-specific transfer and dosimetry.
  3. 3Estimate each w_L factor separately and retain uncertainty.
  4. 4Only then pass the weighted time series to the DKC calculation.