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pub mod cgs {
make_units! {
CGS;
ONE: Unitless;
base {
SQRTCM: SqrtCentimeter, "sqrtcm";
SQRTG: SqrtGram, "sqrtg";
S: Second, "s", Time;
}
derived {
CM: Centimeter = (SqrtCentimeter * SqrtCentimeter), Length;
G: Gram = (SqrtGram * SqrtGram), Mass;
CM2: Centimeter2 = (Centimeter * Centimeter), Area;
CM3: Centimeter3 = (Centimeter2 * Centimeter), Volume;
S2: Second2 = (Second * Second);
S3: Second3 = (Second2 * Second);
S4: Second4 = (Second3 * Second);
CMPS: CentimeterPerSecond = (Centimeter / Second), Velocity;
CMPS3: CentimeterPerSecond3 = (Centimeter / Second3), Jerk;
CMPS4: CentimeterPerSecond4 = (Centimeter / Second4);
CM2PS: Centimeter2PerSecond = (Centimeter2 / Second);
CM2PS2: Centimeter2PerSecond2 = (Centimeter2 / Second2);
CM2PS3: Centimeter2PerSecond3 = (Centimeter2 / Second3);
CM3PS: Centimeter3PerSecond = (Centimeter3 / Second);
CM3PS2: Centimeter3PerSecond2 = (Centimeter3 / Second2);
CM3PS3: Centimeter3PerSecond3 = (Centimeter3 / Second3);
GAL: Gal = (Centimeter / Second2), Acceleration;
DYN: Dyne = (Gram * Gal), Force;
ERG: Erg = (Dyne * Centimeter), Energy;
ERGPS: ErgPerSecond = (Erg / Second), Power;
BA: Barye = (Dyne / Centimeter2), Pressure;
P: Poise = (Gram / Centimeter / Second);
ST: Stokes = (Centimeter2 / Second);
K: Kayser = (Unitless / Centimeter), ReciprocalLength;
STATC: StatCoulomb = (SqrtGram * SqrtCentimeter * Centimeter / Second);
STATA: StatAmpere = (StatCoulomb / Second);
STATV: StatVolt = (Erg / StatCoulomb);
}
constants {
M: Centimeter = HECTO * CM.value_unsafe;
}
fmt = false;
}
#[cfg(feature = "serde")]
impl_serde!(CGS);
#[cfg(feature = "clapme")]
impl_clapme!(CGS);
pub use self::f64consts::*;
#[test]
fn test_cgs_constants() {
#[allow(unused_imports)]
use f64prefixes::*;
#[allow(unused_imports)]
use core::f64::consts;
assert_eq!(M, HECTO * CM);
}
#[cfg(feature = "serde")]
#[test]
fn test_cgs_serde() {
use ::serde_test::{assert_tokens, Token};
let value = 1.0 * SQRTCM;
assert_tokens(&value, &[Token::F64(1.0)]);
let value = 1.0 * SQRTG;
assert_tokens(&value, &[Token::F64(1.0)]);
let value = 1.0 * S;
assert_tokens(&value, &[Token::F64(1.0)]);
}
#[cfg(feature = "clapme")]
#[test]
fn test_cgs_clapme() {
let value = 3.0 * SQRTCM;
assert_eq!(value,
<SqrtCentimeter<f64> as ClapMe>::from_iter(&["test", "3.0"]).unwrap());
let value = 3.0 * SQRTG;
assert_eq!(value,
<SqrtGram<f64> as ClapMe>::from_iter(&["test", "3.0"]).unwrap());
let value = 3.0 * S;
assert_eq!(value,
<Second<f64> as ClapMe>::from_iter(&["test", "3.0"]).unwrap());
}
}