ops_mel/

f64.rs

use melodium_core::*;
use melodium_macro::{check, mel_function, mel_treatment};

/// Elevates `base` from `exponent`
#[mel_function]
pub fn pow(base: f64, exponent: f64) -> f64 {
    base.powf(exponent)
}

/// Computes cube root of `value`
#[mel_function]
pub fn cbrt(value: f64) -> f64 {
    value.cbrt()
}

/// Computes natural logarithm of `value`
#[mel_function]
pub fn ln(value: f64) -> f64 {
    value.ln()
}

/// Computes logarithm of `value` with `base`
#[mel_function]
pub fn log(value: f64, base: f64) -> f64 {
    value.log(base)
}

/// Computes quare root of `value`
#[mel_function]
pub fn sqrt(value: f64) -> f64 {
    value.sqrt()
}

/// Computes arccosine of `value` (in radians)
#[mel_function]
pub fn acos(value: f64) -> f64 {
    value.acos()
}

/// Computes inverse hyperbolic cosine of `value`
#[mel_function]
pub fn acosh(value: f64) -> f64 {
    value.acosh()
}

/// Computes arcsine of `value` (in radians)
#[mel_function]
pub fn asin(value: f64) -> f64 {
    value.asin()
}

/// Computes inverse hyperbolic sine of `value`
#[mel_function]
pub fn asinh(value: f64) -> f64 {
    value.asinh()
}

/// Computes arctangent of `value` (in radians)
#[mel_function]
pub fn atan(value: f64) -> f64 {
    value.atan()
}

/// Computes inverse hyperbolic tangent of `value`
#[mel_function]
pub fn atanh(value: f64) -> f64 {
    value.atanh()
}

/// Computes cosine of `value` (in radians)
#[mel_function]
pub fn cos(value: f64) -> f64 {
    value.cos()
}

/// Computes hyperbolic cosine of `value`
#[mel_function]
pub fn cosh(value: f64) -> f64 {
    value.cosh()
}

/// Computes sine of `value` (in radians)
#[mel_function]
pub fn sin(value: f64) -> f64 {
    value.sin()
}

/// Computes hyperbolic sine of `value`
#[mel_function]
pub fn sinh(value: f64) -> f64 {
    value.sinh()
}

/// Computes tangent of `value` (in radians)
#[mel_function]
pub fn tan(value: f64) -> f64 {
    value.tan()
}

/// Computes hyperbolic tangent of `value`
#[mel_function]
pub fn tanh(value: f64) -> f64 {
    value.tanh()
}

/// Elevates values from a stream of `f64` to the power of another one.
///
/// Values passed through `base` are elevated to the power of `exponent`.
#[mel_treatment(
    input base Stream<f64>
    input exponent Stream<f64>
    output power Stream<f64>
)]
pub async fn pow() {
    while let (Ok(base), Ok(exp)) = (base.recv_one_f64().await, exponent.recv_one_f64().await) {
        check!(power.send_one_f64(base.powf(exp)).await)
    }
}

/// Computes the cube roots from a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output root Stream<f64>
)]
pub async fn cbrt() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            root.send_f64(values.into_iter().map(|v| v.cbrt()).collect())
                .await
        )
    }
}

/// Computes the natural logarithms of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output log Stream<f64>
)]
pub async fn ln() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            log.send_f64(values.into_iter().map(|v| v.ln()).collect())
                .await
        )
    }
}

/// Computes logarithms from a stream of `f64` with the base of another one.
#[mel_treatment(
    input base Stream<f64>
    input value Stream<f64>
    output log Stream<f64>
)]
pub async fn log() {
    while let (Ok(base), Ok(value)) = (base.recv_one_f64().await, value.recv_one_f64().await) {
        check!(log.send_one_f64(value.log(base)).await)
    }
}

/// Computes the square roots from a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output root Stream<f64>
)]
pub async fn sqrt() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            root.send_f64(values.into_iter().map(|v| v.sqrt()).collect())
                .await
        )
    }
}

/// Computes arccosine (in radians) of a stream of `f64`.
///
/// Gives values in the range [0, pi] or not-a-number if outside range [-1, 1].
#[mel_treatment(
    input value Stream<f64>
    output acos Stream<f64>
)]
pub async fn acos() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            acos.send_f64(values.into_iter().map(|v| v.acos()).collect())
                .await
        )
    }
}

/// Computes inverse hyperbolic cosine of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output acosh Stream<f64>
)]
pub async fn acosh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            acosh
                .send_f64(values.into_iter().map(|v| v.acosh()).collect())
                .await
        )
    }
}

/// Computes arcsine (in radians) of a stream of `f64`.
///
/// Gives values in the range [0, pi] or not-a-number if outside range [-1, 1].
#[mel_treatment(
    input value Stream<f64>
    output asin Stream<f64>
)]
pub async fn asin() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            asin.send_f64(values.into_iter().map(|v| v.asin()).collect())
                .await
        )
    }
}

/// Computes inverse hyperbolic sine of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output asinh Stream<f64>
)]
pub async fn asinh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            asinh
                .send_f64(values.into_iter().map(|v| v.asinh()).collect())
                .await
        )
    }
}

/// Computes arctangent (in radians) of a stream of `f64`.
///
/// Gives values in the range [-pi/2, pi/2].
#[mel_treatment(
    input value Stream<f64>
    output atan Stream<f64>
)]
pub async fn atan() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            atan.send_f64(values.into_iter().map(|v| v.atan()).collect())
                .await
        )
    }
}

/// Computes inverse hyperbolic tangent of a stream of  `f64`.
#[mel_treatment(
    input value Stream<f64>
    output atanh Stream<f64>
)]
pub async fn atanh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            atanh
                .send_f64(values.into_iter().map(|v| v.atanh()).collect())
                .await
        )
    }
}

/// Computes cosine (in radians) of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output cos Stream<f64>
)]
pub async fn cos() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            cos.send_f64(values.into_iter().map(|v| v.cos()).collect())
                .await
        )
    }
}

/// Computes hyberbolic cosine of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output cosh Stream<f64>
)]
pub async fn cosh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            cosh.send_f64(values.into_iter().map(|v| v.cosh()).collect())
                .await
        )
    }
}

/// Computes sine (in radians) of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output sin Stream<f64>
)]
pub async fn sin() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            sin.send_f64(values.into_iter().map(|v| v.sin()).collect())
                .await
        )
    }
}

/// Computes hyberbolic sine of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output sinh Stream<f64>
)]
pub async fn sinh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            sinh.send_f64(values.into_iter().map(|v| v.sinh()).collect())
                .await
        )
    }
}

/// Computes tangent (in radians) of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output tan Stream<f64>
)]
pub async fn tan() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            tan.send_f64(values.into_iter().map(|v| v.tan()).collect())
                .await
        )
    }
}

/// Computes hyberbolic tangent of a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output tanh Stream<f64>
)]
pub async fn tanh() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            tanh.send_f64(values.into_iter().map(|v| v.tanh()).collect())
                .await
        )
    }
}

/// Add `a` and `b`
#[mel_function]
pub fn add(a: f64, b: f64) -> f64 {
    a + b
}

/// Divide `dividend` by `divisor`
#[mel_function]
pub fn div(dividend: f64, divisor: f64) -> f64 {
    dividend / divisor
}

/// Multiply `a` by `b`
#[mel_function]
pub fn mult(a: f64, b: f64) -> f64 {
    a * b
}

/// Get the remainder of `dividend` by `divisor`
#[mel_function]
pub fn rem(dividend: f64, divisor: f64) -> f64 {
    dividend % divisor
}

/// Substract `b` from `a`
#[mel_function]
pub fn sub(a: f64, b: f64) -> f64 {
    a - b
}

/// Tells whether `a` is strictly greater than `b`.
#[mel_function]
pub fn gt(a: f64, b: f64) -> bool {
    a > b
}

/// Tells whether `a` is strictly lower than `b`.
#[mel_function]
pub fn lt(a: f64, b: f64) -> bool {
    a < b
}

/// Compares and gives the minimum of two values.
#[mel_function]
pub fn min(a: f64, b: f64) -> f64 {
    a.min(b)
}

/// Compares and gives the maximum of two values.
#[mel_function]
pub fn max(a: f64, b: f64) -> f64 {
    a.max(b)
}

/// Add values from two streams of `f64`.
///
/// Values passed through `a` & `b` are added and send in sum.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output sum Stream<f64>
)]
pub async fn add() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(sum.send_one_f64(a + b).await)
    }
}

/// Divide values from two streams of `f64`.
///
/// Every `a` number passed through the stream is divided by `b` counterpart.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output quotient Stream<f64>
)]
pub async fn div() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(quotient.send_one_f64(a / b).await)
    }
}

/// Multiply values from two streams of `f64`.
///
/// Every `a` number passed through the stream is multiplied by `b` counterpart.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output product Stream<f64>
)]
pub async fn mult() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(product.send_one_f64(a * b).await)
    }
}

/// Give the remainder of the division from two streams of `f64`.
///
/// Every `a` number passed through the stream is divided by `b` and the remainder is outputted.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output remainder Stream<f64>
)]
pub async fn rem() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(remainder.send_one_f64(a % b).await)
    }
}

/// Substract values from two streams of `f64`.
///
/// Every `a` number passed through the stream get `b` substracted.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output diff Stream<f64>
)]
pub async fn sub() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(diff.send_one_f64(a - b).await)
    }
}

/// Compares and gives the minimum of two values.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output min Stream<f64>
)]
pub async fn min() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(min.send_one_f64(a.min(b)).await)
    }
}

/// Compares and gives the maximum of two values.
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output max Stream<f64>
)]
pub async fn max() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(max.send_one_f64(a.max(b)).await)
    }
}

/// Determine whether `a` is strictly lower than `b`
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output is Stream<bool>
)]
pub async fn lower_than() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(is.send_one_bool(a < b).await)
    }
}

/// Determine whether `a` is strictly greater than `b`
#[mel_treatment(
    input a Stream<f64>
    input b Stream<f64>
    output is Stream<bool>
)]
pub async fn greater_than() {
    while let (Ok(a), Ok(b)) = (a.recv_one_f64().await, b.recv_one_f64().await) {
        check!(is.send_one_bool(a > b).await)
    }
}

/// Get absolute value
#[mel_function]
pub fn abs(value: f64) -> f64 {
    value.abs()
}

/// Get the absolute values from a stream of `f64`.
#[mel_treatment(
    input value Stream<f64>
    output abs Stream<f64>
)]
pub async fn abs() {
    while let Ok(values) = value.recv_f64().await {
        check!(
            abs.send_f64(values.into_iter().map(|v| v.abs()).collect())
                .await
        )
    }
}