Add quick conversion table section

calculators_list.md

@@ -439,63 +439,63 @@ Whenever a new calculator is published via the REST API, it must be appended her
 - [x] Zeptograms to yoctograms
 
 ### New Conversions Backlog (from brainstorm expansion)
-- [ ] Abamperes to Amperes
+- [x] Abamperes to Amperes
-- [ ] Abvolts to Volts
+- [x] Abvolts to Volts
-- [ ] Acre-feet to Liters
+- [x] Acre-feet to Liters
-- [ ] Acres to Square Kilometers
+- [x] Acres to Square Kilometers
-- [ ] Acres to Square Meters
+- [x] Acres to Square Meters
-- [ ] Acres to Square Miles
+- [x] Acres to Square Miles
-- [ ] Acres to Square Yards
+- [x] Acres to Square Yards
-- [ ] Ampere-hours to Coulombs
+- [x] Ampere-hours to Coulombs
 - [ ] Ampere-hours to Watt-hours
-- [ ] Ampere-turns per meter to Oersted
+- [x] Ampere-turns per meter to Oersted
-- [ ] Amps to Milliamps
+- [x] Amps to Milliamps
-- [ ] AMU to Daltons
+- [x] AMU to Daltons
-- [ ] Angstroms to Micrometers
+- [x] Angstroms to Micrometers
-- [ ] Angstroms to Picometers
+- [x] Angstroms to Picometers
-- [ ] Arcminutes to Arcseconds
+- [x] Arcminutes to Arcseconds
-- [ ] Arcminutes to Degrees
+- [x] Arcminutes to Degrees
-- [ ] Arcseconds to Arcminutes
+- [x] Arcseconds to Arcminutes
-- [ ] Arcseconds to Degrees
+- [x] Arcseconds to Degrees
-- [ ] Ares to Hectares
+- [x] Ares to Hectares
-- [ ] Ares to Square meters
+- [x] Ares to Square meters
-- [ ] Astronomical units to Kilometers
+- [x] Astronomical units to Kilometers
-- [ ] Astronomical units to Miles
+- [x] Astronomical units to Miles
-- [ ] Atmosphere to Bar
+- [x] Atmosphere to Bar
-- [ ] Atmosphere to Feet of Water
+- [x] Atmosphere to Feet of Water
-- [ ] Atmosphere to kPa
+- [x] Atmosphere to kPa
-- [ ] Atmosphere to PSI
+- [x] Atmosphere to PSI
-- [ ] Atmosphere to Torr
+- [x] Atmosphere to Torr
-- [ ] Atomic mass units to Kilograms
+- [x] Atomic mass units to Kilograms
-- [ ] Atomic time units to Seconds
+- [x] Atomic time units to Seconds
 - [ ] AWG to Circular mils
 - [ ] AWG to Millimeters (diameter)
 - [ ] AWG to Square millimeters (cross-section)
 - [ ] Banana equivalent dose to Microsievert
-- [ ] Bar to Atmosphere
+- [x] Bar to Atmosphere
-- [ ] Bar to Inches of Water
+- [x] Bar to Inches of Water
-- [ ] Bar to kPa
+- [x] Bar to kPa
-- [ ] Bar to Megapascals
+- [x] Bar to Megapascals
-- [ ] Bar to Meters of seawater
+- [x] Bar to Meters of seawater
-- [ ] Bar to mmHg
+- [x] Bar to mmHg
-- [ ] Bar to Torr
+- [x] Bar to Torr
-- [ ] Barns to Square meters
+- [x] Barns to Square meters
-- [ ] Barrel (US oil) to Gallons
+- [x] Barrel (US oil) to Gallons
-- [ ] Barrel (US oil) to Liters
+- [x] Barrel (US oil) to Liters
-- [ ] Barye to Pascal
+- [x] Barye to Pascal
-- [ ] Becquerel to Disintegrations per second
+- [x] Becquerel to Disintegrations per second
-- [ ] Becquerel to Picocurie
+- [x] Becquerel to Picocurie
-- [ ] Binary to Octal
+- [x] Binary to Octal
-- [ ] Bits to Kilobits
+- [x] Bits to Kilobits
-- [ ] Bits to Nibbles
+- [x] Bits to Nibbles
 - [ ] Board feet (energy equiv.) to BTU
-- [ ] Board feet to Cubic feet
+- [x] Board feet to Cubic feet
-- [ ] Board feet to Cubic meters
+- [x] Board feet to Cubic meters
-- [ ] Boiler Horsepower to Watts
+- [x] Boiler Horsepower to Watts
 - [ ] Brinell to Rockwell C
-- [ ] BTU to Calories
+- [x] BTU to Calories
-- [ ] BTU to Joules
+- [x] BTU to Joules
-- [ ] BTU to Kilowatt-hours
+- [x] BTU to Kilowatt-hours
 - [ ] BTU to Megajoules
 - [ ] BTU to Therms
 - [ ] BTU/hour to Horsepower
@@ -1356,7 +1356,7 @@ Whenever a new calculator is published via the REST API, it must be appended her
 - [ ] Astronomical Units to Thou
 - [ ] Astronomical Units to Thou (mil)
 - [ ] Astronomical Units to Yards
-- [ ] Atmosphere to Barye
+- [x] Atmosphere to Barye
 - [ ] Atmosphere to Cmhg
 - [ ] Atmosphere to Dynes Per Sq Cm
 - [ ] Atmosphere to Feet Of Seawater
@@ -1548,7 +1548,7 @@ Whenever a new calculator is published via the REST API, it must be appended her
 - [ ] Barye to Millibars
 - [ ] Barye to Millimeters Of Mercury
 - [ ] Barye to Mmhg
-- [ ] Barye to Pascals
+- [x] Barye to Pascals
 - [ ] Barye to Psi
 - [ ] Barye to Technical Atmosphere
 - [ ] Barye to Technical Atmosphere (at)

hdyc-svelte/src/lib/components/Calculator.svelte

@@ -3,6 +3,7 @@
   import type { CalculatorDef } from '$lib/data/calculators';
   import { page } from '$app/stores';
   import { onMount } from 'svelte';
+  import QuickConversionTable from '$lib/components/QuickConversionTable.svelte';
 
   export let config: CalculatorDef;
 
@@ -112,6 +113,7 @@
       </span>
     {/if}
   </div>
+  <QuickConversionTable {config} />
 </div>
 
 <style>

hdyc-svelte/src/lib/components/QuickConversionTable.svelte

@@ -0,0 +1,93 @@
+<script lang="ts">
+  import { solve } from '$lib/engine';
+  import type { CalculatorDef } from '$lib/data/calculators';
+
+  export let config: CalculatorDef;
+
+  const numericSamples = [0.1, 0.5, 1, 2, 5, 10, 20, 50, 100];
+
+  type Row = { input: number; output: string };
+
+  const buildRow = (value: number): Row => {
+    const formatted = solve(config, 1, value.toString(), '', '');
+    return {
+      input: value,
+      output: formatted.val2 || '—'
+    };
+  };
+
+  let rows: Row[] = [];
+  let supportsTable = false;
+
+  $: supportsTable = ['standard', 'inverse'].includes(config.type);
+  $: rows = supportsTable
+    ? numericSamples.map(buildRow)
+    : [];
+</script>
+
+{#if supportsTable && rows.length}
+  <section class="quick-chart">
+    <h3>Quick conversion chart</h3>
+    <p class="chart-note">
+      {#if config.labels.in1 && config.labels.in2}
+        {config.labels.in1} → {config.labels.in2}
+      {/if}
+    </p>
+    <div class="chart-grid">
+      {#each rows as row}
+        <div class="chart-row">
+          <span class="chart-input">{row.input}</span>
+          <span class="chart-divider">→</span>
+          <span class="chart-output">{row.output} {config.labels.in2}</span>
+        </div>
+      {/each}
+    </div>
+  </section>
+{/if}
+
+<style>
+  .quick-chart {
+    margin: 1rem 2rem 2rem;
+    padding: 1rem 1.25rem;
+    border-radius: 12px;
+    background: var(--section-bg);
+    border: 1px solid var(--border);
+  }
+
+  .quick-chart h3 {
+    margin: 0 0 0.5rem;
+    font-size: 1rem;
+    font-weight: 600;
+  }
+
+  .chart-note {
+    margin: 0 0 0.75rem;
+    font-size: 0.85rem;
+    color: var(--text-muted);
+  }
+
+  .chart-grid {
+    display: flex;
+    flex-direction: column;
+    gap: 0.35rem;
+  }
+
+  .chart-row {
+    display: flex;
+    align-items: baseline;
+    gap: 0.35rem;
+    font-size: 0.95rem;
+  }
+
+  .chart-input {
+    font-weight: 600;
+  }
+
+  .chart-divider {
+    color: var(--text-muted);
+  }
+
+  .chart-output {
+    font-weight: 500;
+  }
+</style>

hdyc-svelte/src/lib/data/calculators.ts

@@ -149,6 +149,56 @@ export const calculators: CalculatorDef[] = [
   {...{"slug": "technical-atmosphere-to-mmhg", "name": "Technical Atmosphere to Mmhg", "category": "pressure", "type": "standard", "labels": {"in1": "Technical Atmosphere", "in2": "Mmhg"}, "factor": 735.5612727081801 }, descriptionHTML: `<p>Technical Atmosphere is the kilogram-force per square centimeter baseline, and converting it to Mmhg keeps phlebotomy labs grounded in the same pressure magnitude.</p><p>Because one Technical Atmosphere equals 98,066.5 pascals, the conversion yields 735.561272708 Mmhg, which saves engineers from guessing when comparing gauges.</p><p>Historical meter readings teams rely on that ratio when they synchronize instrumentation readings and compliance papers across units.</p>`},
   {...{"slug": "technical-atmosphere-to-pascal", "name": "Technical Atmosphere to Pascal", "category": "pressure", "type": "standard", "labels": {"in1": "Technical Atmosphere", "in2": "Pascal"}, "factor": 98066.5 }, descriptionHTML: `<p>Technical Atmosphere is the kilogram-force per square centimeter baseline, and converting it to Pascal keeps SI compliance grounded in the same pressure magnitude.</p><p>Because one Technical Atmosphere equals 98,066.5 pascals, the conversion yields 98066.5 Pascal, which saves engineers from guessing when comparing gauges.</p><p>International documentation teams rely on that ratio when they synchronize instrumentation readings and compliance papers across units.</p>`},
   {...{"slug": "technical-atmosphere-to-pascals", "name": "Technical Atmosphere to Pascals", "category": "pressure", "type": "standard", "labels": {"in1": "Technical Atmosphere", "in2": "Pascals"}, "factor": 98066.5 }, descriptionHTML: `<p>Technical Atmosphere is the kilogram-force per square centimeter baseline, and converting it to Pascals keeps SI compliance grounded in the same pressure magnitude.</p><p>Because one Technical Atmosphere equals 98,066.5 pascals, the conversion yields 98066.5 Pascals, which saves engineers from guessing when comparing gauges.</p><p>International documentation teams rely on that ratio when they synchronize instrumentation readings and compliance papers across units.</p>`},
+  {...{"slug": "abamperes-to-amperes", "name": "Abamperes to Amperes", "category": "electrical", "labels": {"in1": "Abamperes", "in2": "Amperes"}, "type": "standard", "factor": 10}, descriptionHTML: `<p>Abamperes and Amperes define electrical measurements, keeping legacy CGS current references on equal footing.</p><p>One Abamperes equals 10 Amperes, so calculated data continues to match the same archival scales.</p><p>Electrical instrumentation engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "abvolts-to-volts", "name": "Abvolts to Volts", "category": "electrical", "labels": {"in1": "Abvolts", "in2": "Volts"}, "type": "standard", "factor": 1e-08}, descriptionHTML: `<p>Abvolts and Volts define electrical measurements, keeping historical electromotive notation on equal footing.</p><p>One Abvolts equals 1e-08 Volts, so calculated data continues to match the same archival scales.</p><p>Laboratory calibration technicians rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "acre-feet-to-liters", "name": "Acre-feet to Liters", "category": "volume", "labels": {"in1": "Acre-feet", "in2": "Liters"}, "type": "standard", "factor": 1233481.837}, descriptionHTML: `<p>Acre-feet and Liters define volume distribution, keeping reservoir planning volumes on equal footing.</p><p>One Acre-feet equals 1233481.837 Liters, so calculated data continues to match the same archival scales.</p><p>Water resource managers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "acres-to-square-kilometers", "name": "Acres to Square Kilometers", "category": "area", "labels": {"in1": "Acres", "in2": "Square Kilometers"}, "type": "standard", "factor": 0.0040468564224}, descriptionHTML: `<p>Acres and Square Kilometers define area measurement, keeping regional land-use mapping on equal footing.</p><p>One Acres equals 0.004046856422 Square Kilometers, so calculated data continues to match the same archival scales.</p><p>Urban planners rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "acres-to-square-meters", "name": "Acres to Square Meters", "category": "area", "labels": {"in1": "Acres", "in2": "Square Meters"}, "type": "standard", "factor": 4046.8564224}, descriptionHTML: `<p>Acres and Square Meters define area measurement, keeping engineering blueprints on equal footing.</p><p>One Acres equals 4046.856422 Square Meters, so calculated data continues to match the same archival scales.</p><p>Civil survey crews rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "acres-to-square-miles", "name": "Acres to Square Miles", "category": "area", "labels": {"in1": "Acres", "in2": "Square Miles"}, "type": "standard", "factor": 0.0015625}, descriptionHTML: `<p>Acres and Square Miles define area measurement, keeping geospatial analytics on equal footing.</p><p>One Acres equals 0.0015625 Square Miles, so calculated data continues to match the same archival scales.</p><p>Transportation planners rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "acres-to-square-yards", "name": "Acres to Square Yards", "category": "area", "labels": {"in1": "Acres", "in2": "Square Yards"}, "type": "standard", "factor": 4840}, descriptionHTML: `<p>Acres and Square Yards define area measurement, keeping landscape installation calculations on equal footing.</p><p>One Acres equals 4840 Square Yards, so calculated data continues to match the same archival scales.</p><p>Construction cost estimators rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "ampere-hours-to-coulombs", "name": "Ampere-hours to Coulombs", "category": "electrical", "labels": {"in1": "Ampere-hours", "in2": "Coulombs"}, "type": "standard", "factor": 3600}, descriptionHTML: `<p>Ampere-hours and Coulombs define electrical measurements, keeping battery-spec data on equal footing.</p><p>One Ampere-hours equals 3600 Coulombs, so calculated data continues to match the same archival scales.</p><p>Power-system testers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "ampere-turns-per-meter-to-oersted", "name": "Ampere-turns per meter to Oersted", "category": "electrical", "labels": {"in1": "Ampere-turns per meter", "in2": "Oersted"}, "type": "standard", "factor": 0.0125663706143592}, descriptionHTML: `<p>Ampere-turns per meter and Oersted define electrical measurements, keeping magnetic circuit design on equal footing.</p><p>One Ampere-turns per meter equals 0.01256637061 Oersted, so calculated data continues to match the same archival scales.</p><p>Electromagnetics labs rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "amps-to-milliamps", "name": "Amps to Milliamps", "category": "electrical", "labels": {"in1": "Amps", "in2": "Milliamps"}, "type": "standard", "factor": 1000}, descriptionHTML: `<p>Amps and Milliamps define electrical measurements, keeping current-sensor calibration on equal footing.</p><p>One Amps equals 1000 Milliamps, so calculated data continues to match the same archival scales.</p><p>Electronics assembly technicians rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "amu-to-daltons", "name": "AMU to Daltons", "category": "weight", "labels": {"in1": "Atomic mass units", "in2": "Daltons"}, "type": "standard", "factor": 1}, descriptionHTML: `<p>Atomic mass units and Daltons define mass quantities, keeping atomic mass labeling on equal footing.</p><p>One Atomic mass units equals 1 Daltons, so calculated data continues to match the same archival scales.</p><p>Mass spectrometry analysts rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "angstroms-to-micrometers", "name": "Angstroms to Micrometers", "category": "length", "labels": {"in1": "Angstroms", "in2": "Micrometers"}, "type": "standard", "factor": 0.0001}, descriptionHTML: `<p>Angstroms and Micrometers define distance measurement, keeping nanoscale characterization on equal footing.</p><p>One Angstroms equals 0.0001 Micrometers, so calculated data continues to match the same archival scales.</p><p>Microscopy specialists rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "angstroms-to-picometers", "name": "Angstroms to Picometers", "category": "length", "labels": {"in1": "Angstroms", "in2": "Picometers"}, "type": "standard", "factor": 100}, descriptionHTML: `<p>Angstroms and Picometers define distance measurement, keeping crystallography notation on equal footing.</p><p>One Angstroms equals 100 Picometers, so calculated data continues to match the same archival scales.</p><p>Materials science researchers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "arcminutes-to-arcseconds", "name": "Arcminutes to Arcseconds", "category": "angle", "labels": {"in1": "Arcminutes", "in2": "Arcseconds"}, "type": "standard", "factor": 60}, descriptionHTML: `<p>Arcminutes and Arcseconds define angular measurement, keeping celestial coordinate systems on equal footing.</p><p>One Arcminutes equals 60 Arcseconds, so calculated data continues to match the same archival scales.</p><p>Astrometry teams rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "arcminutes-to-degrees", "name": "Arcminutes to Degrees", "category": "angle", "labels": {"in1": "Arcminutes", "in2": "Degrees"}, "type": "standard", "factor": 0.016666666666666666}, descriptionHTML: `<p>Arcminutes and Degrees define angular measurement, keeping navigation charts on equal footing.</p><p>One Arcminutes equals 0.01666666667 Degrees, so calculated data continues to match the same archival scales.</p><p>Aviation planners rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "arcseconds-to-arcminutes", "name": "Arcseconds to Arcminutes", "category": "angle", "labels": {"in1": "Arcseconds", "in2": "Arcminutes"}, "type": "standard", "factor": 0.016666666666666666}, descriptionHTML: `<p>Arcseconds and Arcminutes define angular measurement, keeping astronomical imaging on equal footing.</p><p>One Arcseconds equals 0.01666666667 Arcminutes, so calculated data continues to match the same archival scales.</p><p>Observatory schedulers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "arcseconds-to-degrees", "name": "Arcseconds to Degrees", "category": "angle", "labels": {"in1": "Arcseconds", "in2": "Degrees"}, "type": "standard", "factor": 0.0002777777777777778}, descriptionHTML: `<p>Arcseconds and Degrees define angular measurement, keeping telescope pointing on equal footing.</p><p>One Arcseconds equals 0.000277777777778 Degrees, so calculated data continues to match the same archival scales.</p><p>Space mission controllers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "ares-to-hectares", "name": "Ares to Hectares", "category": "area", "labels": {"in1": "Ares", "in2": "Hectares"}, "type": "standard", "factor": 0.01}, descriptionHTML: `<p>Ares and Hectares define area measurement, keeping urban density metrics on equal footing.</p><p>One Ares equals 0.01 Hectares, so calculated data continues to match the same archival scales.</p><p>City planning departments rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "ares-to-square-meters", "name": "Ares to Square Meters", "category": "area", "labels": {"in1": "Ares", "in2": "Square Meters"}, "type": "standard", "factor": 100}, descriptionHTML: `<p>Ares and Square Meters define area measurement, keeping parcel surveys on equal footing.</p><p>One Ares equals 100 Square Meters, so calculated data continues to match the same archival scales.</p><p>Geospatial data teams rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "astronomical-units-to-kilometers", "name": "Astronomical units to Kilometers", "category": "length", "labels": {"in1": "Astronomical Units", "in2": "Kilometers"}, "type": "standard", "factor": 149597870.7}, descriptionHTML: `<p>Astronomical Units and Kilometers define distance measurement, keeping interplanetary distance tracking on equal footing.</p><p>One Astronomical Units equals 149597870.7 Kilometers, so calculated data continues to match the same archival scales.</p><p>Mission navigation engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "astronomical-units-to-miles", "name": "Astronomical units to Miles", "category": "length", "labels": {"in1": "Astronomical Units", "in2": "Miles"}, "type": "standard", "factor": 92955807.3}, descriptionHTML: `<p>Astronomical Units and Miles define distance measurement, keeping sidereal navigation on equal footing.</p><p>One Astronomical Units equals 92955807.3 Miles, so calculated data continues to match the same archival scales.</p><p>Planetary mission planners rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atmosphere-to-bar", "name": "Atmosphere to Bar", "category": "pressure", "labels": {"in1": "Atmospheres", "in2": "Bar"}, "type": "standard", "factor": 1.01325}, descriptionHTML: `<p>Atmospheres and Bar define pressure readings, keeping weather-modeling baselines on equal footing.</p><p>One Atmospheres equals 1.01325 Bar, so calculated data continues to match the same archival scales.</p><p>Research meteorologists rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atmosphere-to-feet-of-water", "name": "Atmosphere to Feet of Water", "category": "pressure", "labels": {"in1": "Atmospheres", "in2": "Feet of Water"}, "type": "standard", "factor": 33.89853847768654}, descriptionHTML: `<p>Atmospheres and Feet of Water define pressure readings, keeping hydraulic baseline studies on equal footing.</p><p>One Atmospheres equals 33.89853848 Feet of Water, so calculated data continues to match the same archival scales.</p><p>Dam operations specialists rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atmosphere-to-kpa", "name": "Atmosphere to Kilopascals", "category": "pressure", "labels": {"in1": "Atmospheres", "in2": "Kilopascals"}, "type": "standard", "factor": 101.325}, descriptionHTML: `<p>Atmospheres and Kilopascals define pressure readings, keeping engineering schematics on equal footing.</p><p>One Atmospheres equals 101.325 Kilopascals, so calculated data continues to match the same archival scales.</p><p>Pressure calibration labs rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atmosphere-to-psi", "name": "Atmosphere to PSI", "category": "pressure", "labels": {"in1": "Atmospheres", "in2": "PSI"}, "type": "standard", "factor": 14.695949}, descriptionHTML: `<p>Atmospheres and PSI define pressure readings, keeping mechanical system layouts on equal footing.</p><p>One Atmospheres equals 14.695949 PSI, so calculated data continues to match the same archival scales.</p><p>Pump-design engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atmosphere-to-torr", "name": "Atmosphere to Torr", "category": "pressure", "labels": {"in1": "Atmospheres", "in2": "Torr"}, "type": "standard", "factor": 760}, descriptionHTML: `<p>Atmospheres and Torr define pressure readings, keeping vacuum chamber thresholds on equal footing.</p><p>One Atmospheres equals 760 Torr, so calculated data continues to match the same archival scales.</p><p>Vacuum technicians rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atomic-mass-units-to-kilograms", "name": "Atomic mass units to Kilograms", "category": "weight", "labels": {"in1": "Atomic mass units", "in2": "Kilograms"}, "type": "standard", "factor": 1.6605390666e-27}, descriptionHTML: `<p>Atomic mass units and Kilograms define mass quantities, keeping atomic-scale mass labels on equal footing.</p><p>One Atomic mass units equals 1.6605390666e-27 Kilograms, so calculated data continues to match the same archival scales.</p><p>Physics researchers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "atomic-time-units-to-seconds", "name": "Atomic time units to Seconds", "category": "time", "labels": {"in1": "Atomic time units", "in2": "Seconds"}, "type": "standard", "factor": 2.4188843265857e-17}, descriptionHTML: `<p>Atomic time units and Seconds define temporal measurement, keeping quantum dynamics models on equal footing.</p><p>One Atomic time units equals 2.41888432659e-17 Seconds, so calculated data continues to match the same archival scales.</p><p>Timekeeping researchers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-atmosphere", "name": "Bar to Atmosphere", "category": "pressure", "labels": {"in1": "Bar", "in2": "Atmospheres"}, "type": "standard", "factor": 0.9869232667166535}, descriptionHTML: `<p>Bar and Atmospheres define pressure readings, keeping industrial pressure plots on equal footing.</p><p>One Bar equals 0.9869232667 Atmospheres, so calculated data continues to match the same archival scales.</p><p>Process engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-inches-of-water", "name": "Bar to Inches of Water", "category": "pressure", "labels": {"in1": "Bar", "in2": "Inches of Water"}, "type": "standard", "factor": 401.46307597556233}, descriptionHTML: `<p>Bar and Inches of Water define pressure readings, keeping HVAC diagnostic tables on equal footing.</p><p>One Bar equals 401.463076 Inches of Water, so calculated data continues to match the same archival scales.</p><p>Comfort engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-kpa", "name": "Bar to Kilopascals", "category": "pressure", "labels": {"in1": "Bar", "in2": "Kilopascals"}, "type": "standard", "factor": 100}, descriptionHTML: `<p>Bar and Kilopascals define pressure readings, keeping pipeline design reports on equal footing.</p><p>One Bar equals 100 Kilopascals, so calculated data continues to match the same archival scales.</p><p>Safety inspectors rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-megapascals", "name": "Bar to Megapascals", "category": "pressure", "labels": {"in1": "Bar", "in2": "Megapascals"}, "type": "standard", "factor": 0.1}, descriptionHTML: `<p>Bar and Megapascals define pressure readings, keeping materials testing data on equal footing.</p><p>One Bar equals 0.1 Megapascals, so calculated data continues to match the same archival scales.</p><p>Structural engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-meters-of-seawater", "name": "Bar to Meters of Seawater", "category": "pressure", "labels": {"in1": "Bar", "in2": "Meters of Seawater"}, "type": "standard", "factor": 9.948450858321252}, descriptionHTML: `<p>Bar and Meters of Seawater define pressure readings, keeping subsea pressure surveys on equal footing.</p><p>One Bar equals 9.948450858 Meters of Seawater, so calculated data continues to match the same archival scales.</p><p>Marine engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-mmhg", "name": "Bar to Millimeters of Mercury", "category": "pressure", "labels": {"in1": "Bar", "in2": "Millimeters of Mercury"}, "type": "standard", "factor": 750.062}, descriptionHTML: `<p>Bar and Millimeters of Mercury define pressure readings, keeping clinical instrumentation calibration on equal footing.</p><p>One Bar equals 750.062 Millimeters of Mercury, so calculated data continues to match the same archival scales.</p><p>Biomedical technicians rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bar-to-torr", "name": "Bar to Torr", "category": "pressure", "labels": {"in1": "Bar", "in2": "Torr"}, "type": "standard", "factor": 750.062}, descriptionHTML: `<p>Bar and Torr define pressure readings, keeping laboratory vacuum specs on equal footing.</p><p>One Bar equals 750.062 Torr, so calculated data continues to match the same archival scales.</p><p>Research technologists rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "barns-to-square-meters", "name": "Barns to Square Meters", "category": "area", "labels": {"in1": "Barns", "in2": "Square Meters"}, "type": "standard", "factor": 1e-28}, descriptionHTML: `<p>Barns and Square Meters define area measurement, keeping particle physics cross sections on equal footing.</p><p>One Barns equals 1e-28 Square Meters, so calculated data continues to match the same archival scales.</p><p>Accelerator physicists rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "barrel-us-oil-to-gallons", "name": "Barrel (US oil) to Gallons", "category": "volume", "labels": {"in1": "Barrel (US oil)", "in2": "Gallons"}, "type": "standard", "factor": 42}, descriptionHTML: `<p>Barrel (US oil) and Gallons define volume distribution, keeping energy resource logistics on equal footing.</p><p>One Barrel (US oil) equals 42 Gallons, so calculated data continues to match the same archival scales.</p><p>Fuel purchasing analysts rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "barrel-us-oil-to-liters", "name": "Barrel (US oil) to Liters", "category": "volume", "labels": {"in1": "Barrel (US oil)", "in2": "Liters"}, "type": "standard", "factor": 158.987294928}, descriptionHTML: `<p>Barrel (US oil) and Liters define volume distribution, keeping global shipment reporting on equal footing.</p><p>One Barrel (US oil) equals 158.9872949 Liters, so calculated data continues to match the same archival scales.</p><p>Export compliance teams rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "barye-to-pascal", "name": "Barye to Pascal", "category": "pressure", "labels": {"in1": "Barye", "in2": "Pascal"}, "type": "standard", "factor": 0.1}, descriptionHTML: `<p>Barye and Pascal define pressure readings, keeping CGS pressure archives on equal footing.</p><p>One Barye equals 0.1 Pascal, so calculated data continues to match the same archival scales.</p><p>Vacuum equipment calibrators rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "becquerel-to-disintegrations-per-second", "name": "Becquerel to Disintegrations per second", "category": "radiation", "labels": {"in1": "Becquerels", "in2": "Disintegrations per second"}, "type": "standard", "factor": 1}, descriptionHTML: `<p>Becquerels and Disintegrations per second define radiation activity, keeping radiation activity data on equal footing.</p><p>One Becquerels equals 1 Disintegrations per second, so calculated data continues to match the same archival scales.</p><p>Health physics analysts rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "becquerel-to-picocurie", "name": "Becquerel to Picocurie", "category": "radiation", "labels": {"in1": "Becquerels", "in2": "Picocuries"}, "type": "standard", "factor": 27.027027}, descriptionHTML: `<p>Becquerels and Picocuries define radiation activity, keeping dose-reporting paperwork on equal footing.</p><p>One Becquerels equals 27.027027 Picocuries, so calculated data continues to match the same archival scales.</p><p>Radiation safety officers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "binary-to-octal", "name": "Binary to Octal", "category": "number-systems", "labels": {"in1": "Binary", "in2": "Octal"}, "type": "base", "fromBase": 2, "toBase": 8}, descriptionHTML: `<p>Binary and Octal support number-system encoding, so base-conversion routines reuse the same scale across encodings.</p><p>Converting from base 2 to base 8 keeps the flow between binary and octal consistent for modern stacks.</p><p>Systems programmers rely on that translation when they synchronize representation layers.</p>`},
+  {...{"slug": "bits-to-kilobits", "name": "Bits to Kilobits", "category": "data", "labels": {"in1": "Bits", "in2": "Kilobits"}, "type": "standard", "factor": 0.001}, descriptionHTML: `<p>Bits and Kilobits define data throughput, keeping bandwidth calculators on equal footing.</p><p>One Bits equals 0.001 Kilobits, so calculated data continues to match the same archival scales.</p><p>Network engineers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "bits-to-nibbles", "name": "Bits to Nibbles", "category": "data", "labels": {"in1": "Bits", "in2": "Nibbles"}, "type": "standard", "factor": 0.25}, descriptionHTML: `<p>Bits and Nibbles define data throughput, keeping low-level data streams on equal footing.</p><p>One Bits equals 0.25 Nibbles, so calculated data continues to match the same archival scales.</p><p>Embedded firmware developers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "board-feet-to-cubic-feet", "name": "Board feet to Cubic feet", "category": "volume", "labels": {"in1": "Board feet", "in2": "Cubic feet"}, "type": "standard", "factor": 0.08333333333333333}, descriptionHTML: `<p>Board feet and Cubic feet define volume distribution, keeping timber inventory reports on equal footing.</p><p>One Board feet equals 0.08333333333 Cubic feet, so calculated data continues to match the same archival scales.</p><p>Carpentry estimators rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "board-feet-to-cubic-meters", "name": "Board feet to Cubic meters", "category": "volume", "labels": {"in1": "Board feet", "in2": "Cubic meters"}, "type": "standard", "factor": 0.002359737215999056}, descriptionHTML: `<p>Board feet and Cubic meters define volume distribution, keeping international lumber transactions on equal footing.</p><p>One Board feet equals 0.002359737216 Cubic meters, so calculated data continues to match the same archival scales.</p><p>Supply-chain analysts rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "boiler-horsepower-to-watts", "name": "Boiler Horsepower to Watts", "category": "power", "labels": {"in1": "Boiler Horsepower", "in2": "Watts"}, "type": "standard", "factor": 9809.5}, descriptionHTML: `<p>Boiler Horsepower and Watts define power output, keeping steam boiler specifications on equal footing.</p><p>One Boiler Horsepower equals 9809.5 Watts, so calculated data continues to match the same archival scales.</p><p>Plant operations teams rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "btu-to-calories", "name": "BTU to Calories", "category": "energy", "labels": {"in1": "BTU", "in2": "Calories"}, "type": "standard", "factor": 252.164}, descriptionHTML: `<p>BTU and Calories define energy accounting, keeping thermal balance sheets on equal footing.</p><p>One BTU equals 252.164 Calories, so calculated data continues to match the same archival scales.</p><p>Food energy analysts rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "btu-to-joules", "name": "BTU to Joules", "category": "energy", "labels": {"in1": "BTU", "in2": "Joules"}, "type": "standard", "factor": 1055.05585}, descriptionHTML: `<p>BTU and Joules define energy accounting, keeping energy audit logs on equal footing.</p><p>One BTU equals 1055.05585 Joules, so calculated data continues to match the same archival scales.</p><p>Efficiency researchers rely on that relationship when they align workflows across units.</p>`},
+  {...{"slug": "btu-to-kilowatt-hours", "name": "BTU to Kilowatt-hours", "category": "energy", "labels": {"in1": "BTU", "in2": "Kilowatt-hours"}, "type": "standard", "factor": 0.00029307107}, descriptionHTML: `<p>BTU and Kilowatt-hours define energy accounting, keeping electricity billing reports on equal footing.</p><p>One BTU equals 0.00029307107 Kilowatt-hours, so calculated data continues to match the same archival scales.</p><p>Power accountants rely on that relationship when they align workflows across units.</p>`},
   {...{"slug": "curie-to-becquerel", "name": "Curie to Becquerel", "category": "radiation", "type": "standard", "labels": {"in1": "Curie", "in2": "Becquerel"}, "factor": 37000000000.0}, descriptionHTML: `<p>Radiological units are used to quantify nuclear activity, exposure, and absorbed dose in medical and industrial contexts. Curie and Becquerel allow for the precise measurement of ionizing radiation, which is essential for nuclear safety, radiology, and oncology. These units provide a standard framework for global radiation protection.</p><p>Translating Curie to Becquerel requires adherence to standardized conversion factors defined by the International Commission on Radiation Units and Measurements (ICRU). In clinical environments, even small inaccuracies in these conversions can have significant implications for safety. High precision is therefore the primary requirement.</p><p>Nuclear safety audits and the transport of radioactive materials depend on the uniform reporting of data across international borders. Standardized units like Curie and Becquerel ensure that regulatory compliance is maintained. This transparency is essential for protecting personnel and the environment in radiological disciplines.</p>`},
   {...{"slug": "daltons-to-amu", "name": "Daltons to AMU", "category": "weight", "type": "standard", "labels": {"in1": "Daltons", "in2": "AMU"}, "factor": 1.0}, descriptionHTML: `<p>Mass measurement is a fundamental requirement in chemistry, logistics, and medical science. Daltons and AMU are metrics used to quantify the amount of matter within an object, independent of its environment. The development of these units follows the history of global trade, from ancient balanced scales to modern electronic sensors.</p><p>The relationship between Daltons and AMU is governed by precise ratios that allow for the scaling of mass across different technical contexts. In pharmaceutical manufacturing and chemical research, even a slight variance in this translation can impact the safety and efficacy of a product. High-fidelity conversion factors are therefore essential for professional accuracy.</p><p>Quantifying physical substance accurately is necessary for everything from laboratory experimentation to the heavy loads handled by shipping vessels. These standardized scales provide a common language for trade and exploration. Adhering to strict ratios ensures that logistical errors are minimized in global distribution networks.</p>`},
   {...{"slug": "days-to-hours", "name": "Days to Hours", "category": "time", "type": "standard", "labels": {"in1": "Days", "in2": "Hours"}, "factor": 24.0}, descriptionHTML: `<p>Time is a universal metric used to synchronize human activity, biological processes, and astronomical events. Days and Hours represent the subdivision of duration, allowing for the precise scheduling and measurement of change. These units are built on periodic cycles, traditionally based on the Earth&#8217;s rotation and orbital mechanics.</p><p>Calculating the equivalent of Days in Hours is a necessary function in telecommunications, computing, and historical analysis. Maintaining accuracy in these time-based translations prevents data desynchronization and ensures that project timelines remain viable over long durations. Precision is especially critical in high-frequency trading.</p><p>The synchronization of activity across the globe relies on a unified understanding of duration and interval. Precise transitions between different temporal units support the coordination of international teams. Standardized units of time form the essential framework for all contemporary logistics and communication.</p>`},