use crate::{CompressedSchema, Number, Schema, SchemaValue, ToNode};
use anchor_lang::{prelude::*, solana_program::keccak};
use spl_account_compression::Node;
use std::collections::HashMap;
impl ToNode for u8 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for u8 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::U64(self.clone().into()))
}
}
impl ToNode for u16 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for u16 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::U64(self.clone().into()))
}
}
impl ToNode for u32 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for u32 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::U64(self.clone().into()))
}
}
impl ToNode for u64 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for u64 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::U64(self.clone()))
}
}
impl ToNode for i8 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for i8 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::I64(self.clone().into()))
}
}
impl ToNode for i16 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for i16 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::I64(self.clone().into()))
}
}
impl ToNode for i32 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for i32 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::I64(self.clone().into()))
}
}
impl ToNode for i64 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for i64 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::I64(self.clone()))
}
}
impl ToNode for f32 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for f32 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::F64(self.clone().into()))
}
}
impl ToNode for f64 {
fn to_node(&self) -> Node {
let bytes = self.clone().to_le_bytes();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for f64 {
fn schema() -> Schema {
Schema::Number
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Number(Number::F64(self.clone()))
}
}
impl ToNode for String {
fn to_node(&self) -> Node {
keccak::hashv(&[self.clone().as_bytes()][..]).to_bytes()
}
}
impl CompressedSchema for String {
fn schema() -> Schema {
Schema::String
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::String(self.clone())
}
}
impl<T: ToNode> ToNode for Vec<T> {
fn to_node(&self) -> Node {
let mut seeds: Vec<[u8; 32]> = vec![];
for item in self {
let node = item.to_node();
seeds.push(node);
}
let seeds_refs: Vec<&[u8]> = seeds.iter().map(|node| &node[..]).collect();
keccak::hashv(&seeds_refs[..]).to_bytes()
}
}
impl<T: CompressedSchema> CompressedSchema for Vec<T> {
fn schema() -> Schema {
Schema::Array(Box::new(T::schema()))
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Array(self.iter().map(|i| i.schema_value()).collect())
}
}
impl ToNode for Pubkey {
fn to_node(&self) -> Node {
self.to_bytes()
}
}
impl CompressedSchema for Pubkey {
fn schema() -> Schema {
Schema::Pubkey
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Pubkey(self.clone())
}
}
impl ToNode for bool {
fn to_node(&self) -> Node {
let bytes = self.clone().try_to_vec().unwrap();
keccak::hashv(&[bytes.as_ref()][..]).to_bytes()
}
}
impl CompressedSchema for bool {
fn schema() -> Schema {
Schema::Bool
}
fn schema_value(&self) -> SchemaValue {
SchemaValue::Bool(self.clone())
}
}
impl<T: ToNode> ToNode for Option<T> {
fn to_node(&self) -> Node {
match self {
Some(value) => value.to_node(),
None => keccak::hashv(&[&[0u8][..]][..]).to_bytes(),
}
}
}
impl<T: CompressedSchema> CompressedSchema for Option<T> {
fn schema() -> Schema {
Schema::Option(Box::new(T::schema()))
}
fn schema_value(&self) -> SchemaValue {
if self.is_some() {
self.as_ref().unwrap().schema_value()
} else {
SchemaValue::Null
}
}
}
impl<V: ToNode> ToNode for HashMap<String, V> {
fn to_node(&self) -> Node {
let mut seeds: Vec<[u8; 32]> = vec![];
for (key, value) in self {
let key_node = key.to_node();
let value_node = value.to_node();
seeds.push(keccak::hashv(&[&key_node[..]][..]).to_bytes());
seeds.push(keccak::hashv(&[&value_node[..]][..]).to_bytes());
}
let seeds_refs: Vec<&[u8]> = seeds.iter().map(|node| &node[..]).collect();
keccak::hashv(&seeds_refs[..]).to_bytes()
}
}
impl<K: ToString, V: CompressedSchema> CompressedSchema for HashMap<K, V> {
fn schema() -> Schema {
Schema::HashMap(Box::new(Schema::String), Box::new(V::schema()))
}
fn schema_value(&self) -> SchemaValue {
let mut schema = HashMap::new();
self.iter().for_each(|(key, value)| {
schema.insert(key.to_string(), value.schema_value());
});
SchemaValue::HashMap(schema)
}
}