Abstract: Ballot marking devices (BMDs) allow voters to select candidates on a computer kiosk, which prints a paper ballot that the voter can review before inserting it into a scanner to be tabulated. Unlike paperless voting machines, BMDs provide voters an opportunity to verify an auditable physical record of their choices, and a growing number of U.S. jurisdictions are adopting them for all voters. However, the security of BMDs depends on how reliably voters notice and correct any adversarially induced errors on their printed ballots. In order to measure voters’ error detection abilities, we conducted a large study (N = 241) in a realistic polling place setting using real voting machines that we modified to introduce an error into each printout. Without intervention, only 40% of participants reviewed their printed ballots at all, and only 6.6% told a poll worker something was wrong. We also find that carefully designed interventions can improve verification performance. Verbally instructing voters to review the printouts and providing a written slate of candidates for whom to vote both significantly increased review and reporting rates-although the improvements may not be large enough to provide strong security in close elections, especially when BMDs are used by all voters. Based on these findings, we make several evidence-based recommendations to help better defend BMD-based elections.
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Solidity is a high-level, statically-typed programming language used for developing smart contracts on the Ethereum blockchain. Smart contracts are self-executing contracts with the terms of the agreement between buyer and seller written directly into lines of code. Solidity was specifically designed for the Ethereum platform, and it is the most widely used language for creating Ethereum-based smart contracts.
The code below shows how delegated voting can be done so that vote counting is automatic and completely transparent at the same time.
Photograph by Carol M. Highsmith. Library of Congress,
/// @title Voting with delegation.contractBallot{// This declares a new complex type which will// be used for variables later.// It will represent a single voter.structVoter{uintweight;// weight is accumulated by delegationboolvoted;// if true, that person already votedaddressdelegate;// person delegated touintvote;// index of the voted proposal}// This is a type for a single proposal.structProposal{bytes32name;// short name (up to 32 bytes)uintvoteCount;// number of accumulated votes}addresspublicchairperson;// This declares a state variable that// stores a `Voter` struct for each possible address.mapping(address=>Voter)publicvoters;// A dynamically-sized array of `Proposal` structs.Proposal[]publicproposals;/// Create a new ballot to choose one of `proposalNames`.constructor(bytes32[]memoryproposalNames){chairperson=msg.sender;voters[chairperson].weight=1;// For each of the provided proposal names,// create a new proposal object and add it// to the end of the array.for(uinti=0;i<proposalNames.length;i++){// `Proposal({...})` creates a temporary// Proposal object and `proposals.push(...)`// appends it to the end of `proposals`.proposals.push(Proposal({name:proposalNames[i],voteCount:0}));}}// Give `voter` the right to vote on this ballot.// May only be called by `chairperson`.functiongiveRightToVote(addressvoter)public{// If the first argument of `require` evaluates// to `false`, execution terminates and all// changes to the state and to Ether balances// are reverted.// This used to consume all gas in old EVM versions, but// not anymore.// It is often a good idea to use `require` to check if// functions are called correctly.// As a second argument, you can also provide an// explanation about what went wrong.require(msg.sender==chairperson,"Only chairperson can give right to vote.");require(!voters[voter].voted,"The voter already voted.");require(voters[voter].weight==0);voters[voter].weight=1;}/// Delegate your vote to the voter `to`.functiondelegate(addressto)public{// assigns referenceVoterstoragesender=voters[msg.sender];require(!sender.voted,"You already voted.");require(to!=msg.sender,"Self-delegation is disallowed.");// Forward the delegation as long as// `to` also delegated.// In general, such loops are very dangerous,// because if they run too long, they might// need more gas than is available in a block.// In this case, the delegation will not be executed,// but in other situations, such loops might// cause a contract to get "stuck" completely.while(voters[to].delegate!=address(0)){to=voters[to].delegate;// We found a loop in the delegation, not allowed.require(to!=msg.sender,"Found loop in delegation.");}// Since `sender` is a reference, this// modifies `voters[msg.sender].voted`sender.voted=true;sender.delegate=to;Voterstoragedelegate_=voters[to];if(delegate_.voted){// If the delegate already voted,// directly add to the number of votesproposals[delegate_.vote].voteCount+=sender.weight;}else{// If the delegate did not vote yet,// add to her weight.delegate_.weight+=sender.weight;}}/// Give your vote (including votes delegated to you)/// to proposal `proposals[proposal].name`.functionvote(uintproposal)public{Voterstoragesender=voters[msg.sender];require(sender.weight!=0,"Has no right to vote");require(!sender.voted,"Already voted.");sender.voted=true;sender.vote=proposal;// If `proposal` is out of the range of the array,// this will throw automatically and revert all// changes.proposals[proposal].voteCount+=sender.weight;}/// @dev Computes the winning proposal taking all/// previous votes into account.functionwinningProposal()publicviewreturns(uintwinningProposal_){uintwinningVoteCount=0;for(uintp=0;p<proposals.length;p++){if(proposals[p].voteCount>winningVoteCount){winningVoteCount=proposals[p].voteCount;winningProposal_=p;}}}// Calls winningProposal() function to get the index// of the winner contained in the proposals array and then// returns the name of the winnerfunctionwinnerName()publicviewreturns(bytes32winnerName_){winnerName_=proposals[winningProposal()].name;}}
“The Attributes of the Arts and the Rewards Which Are Accorded Them” | Jean Baptiste Siméon Chardin (1766)
We follow a suite of standards developed by theFinancial Accounting Standards Board (FASB) — among them, documents that discover and recommend best financial management practice for not-for-profit organizations common in almost all of the US education industry. At the moment we do not advocate assertively in the FASB suite but we do follow the action as it pertains to the education industry and the activity of the many education industry trade associations whose advocacy activity we do follow.
Stakeholders in the US education industry are encouraged to communicate directly with the FASB on any issue: Accounting Standards Updates Issued
The FASB suite is a standing item on our colloquia covering education industry accounting practice generally and grant and construction project accounting specifically.
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There are several ANSI accredited standards that apply to mortuary science, particularly in the areas of forensic science and medicolegal death investigation. These standards are developed to ensure the highest levels of professionalism, quality, and consistency in the field. Here are some key standards:
ANSI/ASB Best Practice Recommendations: The American National Standards Institute in collaboration with the American Academy of Forensic Sciences has developed various standards, including those related to the handling and processing of human remains. For example, the ANSI/ASB Best Practice Recommendation 094-2021 outlines procedures for postmortem friction ridge print recovery, emphasizing systematic approaches and legal compliance during the process ANSI/ASB Standard 125-2021: This standard focuses on the general requirements for medicolegal death investigation systems. It covers infrastructure, personnel training, and competency requirements to ensure high-quality death investigations. It also references other professional guidelines and accreditation checklists from organizations such as the National Association of Medical Examiners and the International Association of Coroners and Medical Examiners.
These standards are integral to maintaining rigorous protocols and ethical practices within mortuary science and related fields. They help ensure that procedures are consistent, legally compliant, and respectful of the deceased, ultimately contributing to the reliability and credibility of forensic investigations. For more detailed information, you can refer to the ANSI and ASB standards documentation available through their respective organizations.
IEEE Standard for Interconnecting Distributed Resources with Electric Power Systems is effectively the global standard for interconnection of distributed resources with large scale electric power systems. It provides requirements relevant to the performance, operation, testing, safety, and maintenance of the interconnection. Apart from the power reliability and sustainability zietgeist we have seen in campus bulk power distribution systems, this title is usually referenced in research projects undertaken in university research enterprises. The standard is intended to be universally adoptable, technology-neutral, and cover distributed resources as large 10 MVA. To wit:
We collaborate with the IEEE Education & Healthcare Facilities Committee on this an related titles. This committee’s meetings are held 4 times monthly in European and American time zones. International Electrical Technical Commission titles are items on the standing agenda; a few representative titles are listed in addition to IEEE titles below:
IEEE 21451-001-2017 Recommended Practice for Signal Treatment Applied to Smart Transducers: This guide supports the ability to uniformly processing and classifying data from sensors and actuators in a smart system. The standard enables a common interpretation of data and grid interoperability. NIST personnel served on this standard’s working group, providing NIST research on sensors and actuators.
IEEE 2030.7-2017 Standard for the Specification of Microgrid Controllers: This standard established requirements for controllers, used to sense and manage microgrids. These requirements inform the manufacturing of controllers, and ultimately enable grid interoperability. NIST funding aided this standard’s development.
IEEE 2030.8 Standard for Testing Microgrid Controllers: This testing standard helps verify that microgrid controllers meet these requirements, and, thus, will work as intended. NIST funding aided this standard’s development.
Although specific temperature settings vary, gross anatomy labs are commonly kept at temperatures ranging from 55°F to 65°F (approximately 13°C to 18°C). This range balances the need for specimen preservation and the comfort and safety of individuals working in the lab. The 2022 Edition is widely incorporated by reference into public safety law; design, construction, maintenance operations best practice for laboratory health care occupancies.
Purpose: This standard specifies safe design, construction, installation and operation of refrigeration systems. It not apply to refrigeration systems using ammonia (R-717) as the refrigerant.
Scope: This standard establishes safeguards for life, limb, health, and property and prescribes safety requirements:
Design, construction, test, installation, operation, and inspection of mechanical and absorption refrigeration systems, including heat pump systems used in stationary applications;
Modifications including replacement of parts or components if they are not identical in function and capacity; and substitutions of refrigerant having a different designation.
This standard provides safety requirements for refrigeration systems, which are often used in cadaver storage facilities to maintain appropriate temperatures. It includes guidelines on system design, installation, operation, and maintenance to ensure safe and reliable performance. Student gross anatomy labs are typically kept at lower temperatures. Maintaining a cooler environment in these labs is important for several reasons:
Preservation of Specimens: Lower temperatures help preserve cadavers and anatomical specimens by slowing down the decomposition process. This is crucial for maintaining the quality and usability of the specimens over extended periods.
Control of Odors: Cooler temperatures can help minimize the release of odors from the preservation chemicals used, such as formaldehyde, which can be unpleasant and potentially harmful in higher concentrations.
Health and Safety: Maintaining a lower temperature can reduce the volatilization of formaldehyde and other chemicals, thereby lowering the concentration of potentially harmful vapors in the air. This contributes to a safer environment for students and faculty.
Comfort during Lab Sessions: Students and instructors often wear protective clothing, including lab coats and gloves, which can be uncomfortable in warmer environments. A cooler lab helps ensure comfort during extended periods of study and dissection.
While the specific temperature settings can vary, gross anatomy labs are commonly kept at temperatures ranging from 55°F to 65°F (approximately 13°C to 18°C). This range balances the need for specimen preservation and the comfort and safety of individuals working in the lab.
New update alert! The 2022 update to the Trademark Assignment Dataset is now available online. Find 1.29 million trademark assignments, involving 2.28 million unique trademark properties issued by the USPTO between March 1952 and January 2023: https://t.co/njrDAbSpwBpic.twitter.com/GkAXrHoQ9T