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Library/Papers/Decentralized Procurement Mechanisms for Efficient Logistics Services Mapping - a Design Science Research Approach

Research paper

Decentralized Procurement Mechanisms for Efficient Logistics Services Mapping - a Design Science Research Approach

The paper designs, implements and evaluates a decentralized blockchain-based logistics procurement system that addresses the carrier-shipper allocation problem, deriving five design requirements, three artifact (design) objectives, and three nascent design principles - understandability, automation and metrics privacy - for decentralized procurement mechanisms.

Paper
OverviewDSR gridPaper design mapDesign knowledgePublication metadata

01

Overview

Publication metadata and narrative from the current library record.

Authors
Tiphaine Henry, Roman Beck, Nassim Laga, Walid Gaaloul, Shenle Pan
Year
2022
Venue
Proceedings of the 55th Hawaii International Conference on System Sciences (HICSS-55), 2022
Methodology
Design science research; literature review and interviews to derive design requirements/objectives; prototype development across two iterative evaluation cycles (moderated usability testing with 14 student participants, then two expert focus groups); knowledge abstraction into nascent design principles.
Publication
View publication
Design knowledge
View design knowledge on GitHub
blockchaindecentralized-procurement-logisticsdesign-science-researchlogisticsprocurementsmart-contractssupply-chain

Summary

The paper designs, implements and evaluates a decentralized blockchain-based logistics procurement system that addresses the carrier-shipper allocation (FTSP) problem. From a literature/interview-based analysis it derives five design requirements (R1-R5), merged into three artifact objectives (P1-P3: platform operating costs reduction, contractual flexibility, allocation integrity) and corresponding features; from two iterative prototype-evaluation cycles it abstracts three nascent design principles - understandability, automation and metrics privacy - for decentralized procurement mechanisms.

Artifact

A decentralized logistics-services procurement system (blockchain-based freight transport service provider mapping).

Methodology

Design science research; literature review and interviews to derive design requirements/objectives; prototype development across two iterative evaluation cycles (moderated usability testing with 14 student participants, then two expert focus groups); knowledge abstraction into nascent design principles.

02

DSR grid

Six dimensions represented in the current paper record.

01

Problem description

Centralized logistics-procurement platforms are prone to information asymmetries between carriers and shippers, leading to sub-optimal procurement outcomes.

02

Input knowledge

Freight-transport service-provider (FTSP) mapping and procurement/allocation literature; blockchain and smart contracts; knowledge gained from prototype-development cycles.

03

Research process

Design science research: design, implementation and evaluation of a decentralized procurement system, with design requirements/objectives derived from literature and interviews, and nascent principles derived from the prototype evaluation cycles.

04

Key concepts

Decentralized procurement, logistics services, blockchain, smart contracts, FTSP mapping.

05

Solution description

A decentralized blockchain-based logistics-services procurement system addressing the allocation problem. Solution-space representation: Instantiation (prototype) plus three nascent design principles.

06

Output knowledge

Five design requirements (R1-R5), three artifact objectives (P1-P3), and three nascent design principles: understandability, automation and metrics privacy.

03

Paper design map

The default semantic design map canonicalizes stored design relationships; Raw links retains the complete technical Markdown-link view.

Design-knowledge map

11 stored concepts / 6 canonical semantic relationships

Concept types
Design Objectives
Design Requirements
Design Principles
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04

Design knowledge

Directly linked concepts, grouped by their represented design-knowledge category.

3 Design Objectives

design-knowledge/decentralized-procurement-logistics-do1

P1 - Platform operating costs reduction

Platform operating costs reduction of the FTSP system should be considered to enhance the transportation process.

decentralized-procurement-logisticsdesign-objectivelogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-do2

P2 - Contractual flexibility

The platform should offer contractual flexibility.

decentralized-procurement-logisticsdesign-objectivelogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-do3

P3 - Allocation integrity

Allocation integrity should be considered, be it for the allocation process, the record of service rates, and the management of CMR.

decentralized-procurement-logisticsdesign-objectivelogisticsprocurement+2

3 Design Principles

design-knowledge/decentralized-procurement-logistics-dp1

DP1 - Understandability

The smart contract shipper-carrier allocation protocol must be displayed to the shipper.

decentralized-procurement-logisticsdesign-principlelogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dp2

DP2 - Automation

The FTSP process must be carried on in an end-to-end fashion by the smart contract.

decentralized-procurement-logisticsdesign-principlelogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dp3

DP3 - Metrics privacy

The allocation mechanism must keep sensitive data off-chain in competitive markets.

decentralized-procurement-logisticsdesign-principlelogisticsprocurement+2

5 Design Requirements

design-knowledge/decentralized-procurement-logistics-dr1

R1 - Allocation flexibility

A solution must provide allocation flexibility to shippers and carriers.

decentralized-procurement-logisticsdesign-requirementlogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dr2

R2 - Autonomous allocation process

A solution must provide an autonomous allocation process.

decentralized-procurement-logisticsdesign-requirementlogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dr3

R3 - Real-time payment

A solution must enact real-time payment to help carriers optimize their commercial processes and operating costs.

decentralized-procurement-logisticsdesign-requirementlogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dr4

R4 - CMR regulations compliance

A solution must comply with CMR regulations.

decentralized-procurement-logisticsdesign-requirementlogisticsprocurement+2
design-knowledge/decentralized-procurement-logistics-dr5

R5 - Delivery history integrity and traceability

A solution must provide delivery history integrity and traceability.

decentralized-procurement-logisticsdesign-requirementlogisticsprocurement+2

05

Publication metadata

Additional metadata represented in the current library record.

Show additional metadata+
{
  "type": "paper",
  "title": "Decentralized Procurement Mechanisms for Efficient Logistics Services Mapping - a Design Science Research Approach",
  "description": "The paper designs, implements and evaluates a decentralized blockchain-based logistics procurement system that addresses the carrier-shipper allocation problem, deriving five design requirements, three artifact (design) objectives, and three nascent design principles - understandability, automation and metrics privacy - for decentralized procurement mechanisms.",
  "resource": "https://hdl.handle.net/10125/79952",
  "authors": "Tiphaine Henry, Roman Beck, Nassim Laga, Walid Gaaloul, Shenle Pan",
  "year": 2022,
  "venue": "Proceedings of the 55th Hawaii International Conference on System Sciences (HICSS-55), 2022",
  "methodology": "Design science research; literature review and interviews to derive design requirements/objectives; prototype development across two iterative evaluation cycles (moderated usability testing with 14 student participants, then two expert focus groups); knowledge abstraction into nascent design principles.",
  "dsr_grid": true,
  "dsr_solution_space": "Instantiation (prototype) plus three nascent design principles.",
  "tags": [
    "decentralized-procurement-logistics",
    "logistics",
    "procurement",
    "smart-contracts",
    "supply-chain",
    "design-science-research",
    "blockchain"
  ]
}