let subnetMap = {}; let maxNetSize = 0; let infoColumnCount = 5 $('#btn_go').on('click', function() { reset(); }) $('#btn_reset').on('click', function() { reset(); }) function reset() { let rootCidr = get_network($('#network').val(), $('#netsize').val()) + '/' + $('#netsize').val() subnetMap = {} subnetMap[rootCidr] = {} maxNetSize = parseInt($('#netsize').val()) /* subnetMap = { '10.0.0.0/16': { '10.0.0.0/17': {}, '10.0.128.0/17': { '10.0.128.0/18': { '10.0.128.0/19': {}, '10.0.160.0/19': { '10.0.160.0/20': {}, '10.0.176.0/20': { '10.0.176.0/21': { '10.0.176.0/22': { '10.0.176.0/23': {}, '10.0.178.0/23': {} }, '10.0.180.0/22': {} }, '10.0.184.0/21': {} } } }, '10.0.192.0/18': { '10.0.192.0/19': {}, '10.0.224.0/19': { '10.0.224.0/20': {}, '10.0.240.0/20': { '10.0.240.0/21': {}, '10.0.248.0/21': { '10.0.248.0/22': {}, '10.0.252.0/22': { '10.0.252.0/23': {}, '10.0.254.0/23': { '10.0.254.0/24': {}, '10.0.255.0/24': {} } } } } } } } } } */ renderTable(); } $('#calcbody').on('click', 'td.split,td.join', function(event) { // HTML DOM Data elements! Yay! See the `data-*` attributes of the HTML tags console.log(this.dataset.subnet) mutate_subnet_map(this.dataset.mutateVerb, this.dataset.subnet, subnetMap) renderTable(); }) function renderTable() { // TODO: Validation Code $('#calcbody').empty(); let maxDepth = get_dict_max_depth(subnetMap, 0) addRowTree(subnetMap, 0, maxDepth) } function addRowTree(subnetTree, depth, maxDepth) { for (let mapKey in subnetTree) { if (Object.keys(subnetTree[mapKey]).length > 0) { addRowTree(subnetTree[mapKey], depth + 1, maxDepth) } else { let subnet_split = mapKey.split('/') addRow(subnet_split[0], parseInt(subnet_split[1]), (infoColumnCount + maxDepth - depth)) } } } function addRow(network, netSize, colspan) { // TODO: do some checking here for smaller networks like /32, probably some edge cases to watch for. let addressFirst = ip2int(network) let addressLast = subnet_last_address(addressFirst, netSize) // Will need to adjust this for AWS mode let usableFirst = addressFirst + 1 let usableLast = addressLast - 1 let hostCount = 1 + usableLast - usableFirst let newRow = ' \n' + ' ' + network + '/' + netSize + '\n' + ' ' + int2ip(addressFirst) + ' - ' + int2ip(addressLast) + '\n' + ' ' + int2ip(usableFirst) + ' - ' + int2ip(usableLast) + '\n' + ' ' + hostCount + '\n' + ' \n' + ' /' + netSize + '\n' if (netSize > maxNetSize) { // This is wrong. Need to figure out a way to get the number of children so you can set rowspan and the number // of ancestors so you can set colspan. // DONE: If the subnet address (without the mask) matches a larger subnet address // in the heirarchy that is a signal to add more join buttons to that row, since they start at the top row and // via rowspan extend downward. let matchingNetworkList = get_matching_network_list(network, subnetMap).slice(1) for (const i in matchingNetworkList) { let matchingNetwork = matchingNetworkList[i] let networkChildrenCount = count_network_children(matchingNetwork, subnetMap, []) newRow += ' /' + matchingNetwork.split('/')[1] + '\n' } } newRow += ' '; $('#calcbody').append(newRow) console.log(network) console.log(netSize) } // Helper Functions function ip2int(ip) { return ip.split('.').reduce(function(ipInt, octet) { return (ipInt<<8) + parseInt(octet, 10)}, 0) >>> 0; } function int2ip (ipInt) { return ( (ipInt>>>24) +'.' + (ipInt>>16 & 255) +'.' + (ipInt>>8 & 255) +'.' + (ipInt & 255) ); } function subnet_last_address(subnet, netSize) { return subnet + subnet_addresses(netSize) - 1; } function subnet_addresses(netSize) { return 2**(32-netSize); } function get_dict_max_depth(dict, curDepth) { let maxDepth = curDepth for (let mapKey in dict) { let newDepth = get_dict_max_depth(dict[mapKey], curDepth + 1) if (newDepth > maxDepth) { maxDepth = newDepth } } return maxDepth } function get_join_children(subnetTree, childCount) { for (let mapKey in subnetTree) { if (Object.keys(subnetTree[mapKey]).length > 0) { childCount += get_join_children(subnetTree[mapKey]) } else { return childCount } } } function count_network_children(network, subnetTree, ancestryList) { // TODO: This might be able to be optimized. Ultimately it needs to count the number of keys underneath // the current key are unsplit networks (IE rows in the table, IE keys with a value of {}). let childCount = 0 for (let mapKey in subnetTree) { if (Object.keys(subnetTree[mapKey]).length > 0) { childCount += count_network_children(network, subnetTree[mapKey], ancestryList.concat([mapKey])) } else { if (ancestryList.includes(network)) { childCount += 1 } } } return childCount } function get_matching_network_list(network, subnetTree) { let subnetList = [] for (let mapKey in subnetTree) { if (Object.keys(subnetTree[mapKey]).length > 0) { subnetList.push.apply(subnetList, get_matching_network_list(network, subnetTree[mapKey])) } if (mapKey.split('/')[0] === network) { subnetList.push(mapKey) } } return subnetList } function get_network(networkInput, netSize) { let ipInt = ip2int(networkInput) netSize = parseInt(netSize) for (let i=31-netSize; i>=0; i--) { ipInt &= ~ 1< 0) { mutate_subnet_map(verb, network, subnetTree[mapKey]) } if (mapKey === network) { if (verb === 'split') { let netSplit = mapKey.split('/') let new_networks = split_network(netSplit[0], parseInt(netSplit[1])) subnetTree[mapKey][new_networks[0]] = {} subnetTree[mapKey][new_networks[1]] = {} } else if (verb === 'join') { subnetTree[mapKey] = {} } else { // How did you get here? } } } } $( document ).ready(function() { reset(); });