cwli24

class MinHeap {
    constructor(selector = x => x[0]) {
        this.items = [0];
        this.selector = selector;
    }
    insert(item) {
        let childIdx = this.items.length;
        this.items.push(item);
        let childItem = item;
        let parentIdx = Math.trunc(childIdx/2), parentItem = this.items[parentIdx];

cwli24

#!/usr/bin/ruby -W0
BEGIN {
  puts "This block will always run first."
  print <<EOF
----------------
EOF
} # notice EOF cannot be indented
END {
print <<"up2u"
----------------

cwli24

// SPDX-License-Identifier: MIT
pragma solidity ^0.8.7; // '^' is for >= this version

/* DISCLAIMER:
    This is a sample that provides a brief overview and glimpse into the basics of Solidity 0.8 types and language structure.
    It is a quick breakdown meant for those with previous coding experience. All the highlights and key points are noted as comments.
    With the economics and scalability-congestion of ETH in mind, search for "GAS" tips that help lower the cost of your contract executions.
*/
contract HelloWorld {
    string public myString = "hello world";

cwli24

;; Calculates factorial of arbitrary number using LC-3b assembly. (Only LDR/STR/ADD/AND/NOT/BR instructions supported.)
ORIGIN	4x0000
SEGMENT	CodeSegment:
        ;; Assuming all registers, specifically R0, are zeroed at beginning
        ;; R0 - x0000 throughout program for convenience due to limited instrs
        ;; R1 - accumulator of final factorial RESULT ("s")
        ;; R2 - down counter of 's' additions in each round (inner loop, "j")
        ;; R3 - down counter of factorial rounds from x to 0 (outer loop, "i")
        ;; R4 - 's' at the beginning of reach round ("n")
        ;; R5 - contain decrement value (-1) for convenience

cwli24

#ifndef MXNET_OPERATOR_NEW_FORWARD_CUH_
#define MXNET_OPERATOR_NEW_FORWARD_CUH_
#define TILE_WIDTH 24 // has to be a multiple of this to get correctness = 0.8562
//#define TILE_WIDTH 8
#include <mxnet/base.h>

namespace mxnet
{
namespace op