Production Flow Research Articles

Assessment of the Sustainable Supply Chain Finance Factors

In a scientific context, the main focus of sustainable supply chain management is on the creation and optimization of product and information flows; however, the management of financial flows receives insufficient attention. All effectively developed supply chain activities may collapse as a result of inadequate management of sustainable supply chain financial processes. In order to successfully develop systematically functioning processes of the international supply chain, it is necessary to analyze how to apply financing instruments in a targeted and effective manner. Adequate financing of the sustainable supply chain is the effect of great prospects and competitive advantage not only on a national scale but also in international markets. The aim of this research was to assess the importance of financing instruments used in international sustainable supply chain finance. Correlation-regression analysis was chosen for the research, which was designed to assess the factors of financial instruments of the dairy industry sustainable supply chain using the example of a company. The results showed that the key factor in the supply chain processes of the dairy products production company was the turnover ratio of buyers’ debts; therefore, in order for the company to improve the indicators of the sustainable supply chain, it should allocate more financing specifically to the turnover ratio of buyers’ debts.

The Implementation of Simulation in Designing Production Expansion

This paper addresses the design of production expansion by using simulation to optimize production and storage capacities. The primary objective is to apply the Siemens Tecnomatix Plant Simulation software version 2404 to analyze the current production process, identify potential bottlenecks, and propose improvements. The methodology involves the use of simulation to create digital models of the production process, allowing for the detection of issues and evaluation of alternative solutions without interfering with ongoing production. The novelty of this approach lies in its ability to test and optimize the production flow digitally, ensuring a smoother transition to expanded capacities. Several alternative scenarios for production expansion were developed using Siemens Tecnomatix Plant Simulation, with a focus on verifying production volumes, identifying bottlenecks, and proposing the necessary machines and technological equipment. The results of the simulations are used to assess the proposed improvements, while the layout of the process is optimized for efficient material flow. The paper also presents 3D models as part of the solution proposal. The findings demonstrate the effectiveness of simulation-based design for expanding production systems, offering a methodology that can be applied to similar manufacturing processes.

Towards wafer-scale 2D material sensors

Abstract The unique properties of two-dimensional (2D) materials bring great promise to improve sensor performance and realise novel sensing principles. However, to enable their high-volume production, wafer-scale processes that allow integration with electronic readout circuits need to be developed. In this perspective, we review recent progress in on-chip 2D material sensors, and compare their performance to the state-of-the-art, with a focus on results achieved in the Graphene Flagship programme. We discuss transfer-based and transfer-free production flows and routes for complementary metal-oxide-semiconductor (CMOS) integration and prototype development. Finally, we give an outlook on the future of 2D material sensors, and sketch a roadmap towards realising their industrial and societal impact.

Optimizing agricultural downstream supply chain: addressing information asymmetry and losses

PurposeThis study aims to understand the significant issues in the downstream supply chain of agricultural commodities and find out the improved strategy.Design/methodology/approachA value chain analysis on a downstream supply chain is performed to understand all ground-level issues related to information asymmetry and material losses. The study maps processes, actors, activities, product flow, information flow, material volume flow, technology adoption and value share. The study is performed by doing a qualitative survey using a semi-structured questionnaire and face-to-face interviews with 120 farmers, six aggregators, six traders in APMC mandis, six processors, six distributors and six retailers. A case study is performed on the mustard supply chain in Rajasthan to relate the results more comprehensively. After identifying the prominent issues, a cause-and-effect analysis is done to generate suggestions for improvement in the paper.FindingsThe study reveals that the downstream supply chain has 8–12% losses of agricultural produce, and 5–7% of that is at the farmer’s end as post-harvesting losses. Farmers cannot access all available options for marketing their produce because of poor information exchange and poor reach. It suggests farmer empowerment for the optimum benefit of the entire supply chain.Research limitations/implicationsThis is an exploratory study conducted by field visits and lacks statistical evidence for some findings. The dataset can be more extensive, diversified, and analyzed for various commodities.Practical implicationsThe study’s outcome will guide the stakeholders in finding more optimum options in the downstream agriculture supply chain. Research methodology can be used as a template for studying the supply chain of any agricultural commodity in different countries.Originality/valueThe study reveals the prominent issues, causes, effects and solutions throughout the agriculture downstream supply chain. The study is a bundle of foremost observations altogether. The study has been conducted in-depth in the field with actual scenarios that unlayered the hidden issues at the root. This study addresses a relatively underexplored area and provides actionable recommendations, which significantly contribute to the existing literature on the agriculture supply chain.

Influence of Practitioner Dashboard Feedback on Anesthetic Greenhouse Gas Emissions: A Prospective Performance Improvement Investigation.

Anesthetic gases contribute to global warming. We described a two-year performance improvement project to examine the association of individualized provider dashboard feedback of anesthetic gas carbon dioxide equivalent (CDE20) production and median perioperative fresh gas flows (FGF) during general anesthetics during perioperative management. Using a custom structured query language (SQL) query, hourly CDE20 for each anesthetic gas and median FGF were determined. During the first year, practitioners were not given any feedback on their use of anesthetic gases. During the second year of the study protocol, a commercially available business intelligence platform was used to deliver individualized monthly dashboard of these parameters to each practitioner. Continuous values are expressed as median [first quartile, third quartile]. During the study period, 53,294 patients managed by 79 anesthesiologists were available for analysis. Bivariate analysis revealed an overall decrease in median FGF from 2.0 [1.9, 3.0] liters/minute (l/min) to 1.9 [1.7, 2.0] l/min (p < 0.001). There was a significant decrease in the overall total CDE20 from 5.10 [0,12.3] to 3.59 [0,8.78] kg/hr (p < 0.001). Multivariate analysis demonstrated an initial decrease in monthly practitioner total CDE20 production with the intervention (odds ratio (OR) 0.875 95% confidence interval (CI) 0.809-0.996, p < 0.001) and a faster decrease rate in monthly total CDE20 (OR 0.986, 95% CI 0.976-0,996, p < 0.001). Dashboard distribution initially decreased isoflurane (intervention OR 0.97 95% CI 0.96-0.99, p = 0.001) and N2O (OR 0.82 95% CI 0.73-0.94, p = 0.003) CDE20 production and was associated with a steeper declining rate of isoflurane (OR 0.87, CI 0.79-0.94, p < 0.001) and desflurane (OR 0.9, 0.84-0.97, p = 0.005) CDE20 production. The intervention did not have a significant effect on the monthly rate of decline of sevoflurane or N2O CDE20. The average practitioner FGF decreased by 0.3l/m (95% confidence interval (CI): -0,011, -0.5, p = 0.002) with dashboard distributions. Dashboard distribution may be an effective tool to decrease FGF as well as components of anesthetic greenhouse gas emissions.

Implementasi Pendekatan Activity Relationship Chart dalam Perancangan Tata Letak Gudang Baru untuk Memperpendek Perpindahan Material di UD. M

This research discusses the issues faced by UD M, which produces crispy brownie chips, where the finished goods warehouse often becomes overcrowded due to production reaching 253 boxes, while the warehouse capacity is only 48 boxes. Due to other factors as well, the owner decided to move all activities, starting from raw material storage, production, and finished goods storage, to another location. The problem is the absence of a layout for the new warehouse. With this issue, the author designed the factory layout based on the Shared Storage method, considering material handling and the FIFO picking system. This research aims to provide the owner of UD M with considerations for arranging the facility layout in the new building. In addition to changing the layout of the finished goods warehouse, the owner plans to relocate the factory. The author reorganized the new factory of UD. M based on the results of the Activity Relationship Chart.(ARC). The research results show that the raw material warehouse, which initially measured 11.30 m², has been reduced to 10.32 m². Then, the finished goods warehouse, which initially could only hold 48 boxes, can now hold up to 123 boxes per day. By changing the layout of the production area, the production flow also becomes more organized and systematic. Keywords: ARC, FIFO, Production Flow, Share Storage, Warehouse

Design, Scale‐Up, and Dynamic Simulation of a Patented Bayonet Reactor for Commercial Hydrogen Production via Sulfur‐Iodine Water Splitting

ABSTRACTThe sulfuric acid decomposition reactor is a key component of the iodine‐sulfur thermochemical cycle process. The design of the sulfuric acid decomposition reactor requires excellent corrosion resistance and mechanical strength performance. In this work, a patented reactor on a pilot scale was scaled up to an industrial scale. A plant equipment design for an industrial‐scale reactor was performed. Based on an integrated inherent safety design approach, it was determined that the optimal thickness was 110 mm, and the design passed all stress analysis tests. With a minimum targeted hydrogen production rate of 1000 kg/h, the process design yielded a reactor with a diameter of 7 m and a height of 30 m, while silicon carbide was chosen as the construction material. The scaled‐up reactor was dynamically simulated in MATLAB. Simulink demonstrated that both the reactor temperature and product flow rates successfully produced a stable response within 1.8 and 4 h of operation, respectively.

Extracellular vesicles in dry eye disease and Sjögren's syndrome: A systematic review on their diagnostic and therapeutic role.

Extracellular vesicles (EVs), defined as membrane-bound vesicles released from all cells, are being explored for their diagnostic and therapeutic role in dry eye disease (DED). We systematically shortlisted 32 articles on the role of EVs in diagnosing and treating DED. We cover the progress in the last 2 decades on the classification and isolation of EVs and their role in DED. The diagnostic predictability of exosomes was evaluated in Sjögren syndrome (SS) patients' tears, plasma, and saliva, where upregulation of inflammatory proteins was reported uniformly across studies. Also, we evaluate the therapeutic effects of MSC-derived EVs in in vitro and in vivo studies of SS and DED mouse models. A significant response occurs at a functional level with improved tear production and saliva flow rate and at a cellular level with reduced lymphocyte infiltration, improved corneal structural integrity, decreased epithelial cell apoptosis, and dampening of the inflammatory cytokine response. The proposed mechanisms of EV action include PD-L1, PRDM, NLRP-3, and Nf-kb pathways, and an increase in M2 macrophage phenotype. Current use of exosomes in DED is limited due to their cumbersome isolation techniqus. Further research on human subjects is needed, in addition to optimizing exosome isolation and delivery methods.

The Addition of Felsic Sediments to the Lower Continental Crust During the Variscan Orogeny

AbstractLower crustal metasedimentary xenoliths (garnet‐sillimanite granulites) from the Bournac breccia pipe in the Massif Central, France, provide a robust example of sediments transported to depth and incorporated into stable lower continental crust during a collisional orogeny. Dates for detrital igneous zircon range from the Archean (up to 3,300 Ma) to the Devonian and record sedimentation prior to the onset of the collisional phase of the Variscan orogeny. Metamorphic zircon and monazite document the presence of the metasediments in the lower crust by ca. 330 Ma during the later phase of Variscan collision. Zircon and monazite crystallization continued within the lower crust until ca. 265 Ma, corresponding to a period of slow cooling following an episode of ultra‐high temperature (UHT) metamorphism that peaked at 313 Ma. Zr‐in‐rutile thermometry and GASP barometry applied to these samples record conditions of 0.63–0.77 GPa and 830–910°C, which correspond to Ti‐in‐zircon temperatures from the latter part of the Variscan orogeny and geotherms in excess of typical continent‐continent collisions. Rutile in these samples remained open to Pb loss until their eruption at ca. 11.6 Ma, providing an indirect date of the Bournac eruption. These rocks record the incorporation of felsic sedimentary material into the stable deep continental crust during a collisional orogen and their residence there for over 300 Ma. More broadly, the addition of sediments to stable lower crust contributes to changes in crustal composition and has significant implications for the heterogeneity of the deep continental crust, as well as overall crustal heat production and mantle heat flow.

McDonald’s China Adopts Operations Research for Network Design

The supply chain network design (SCND) problem is a typical optimization problem that determines the structure of a supply chain and affects its costs and operational performance. SCND deals with various decisions, such as determining the number, size, and location of facilities and the optimal material and product flows of the entire supply chain network. Therefore, SCND is one of the most crucial planning problems in supply chain management. In this paper, we present a practical approach in which we adopt a mixed-integer programming (MIP) mathematical model to solve a real industry SCND problem for McDonald’s China. As a result of this project, McDonald’s China has saved millions of dollars in logistics costs and reduced CO2 emissions by more than 10%. In our approach, size-reduction techniques were successfully applied to deal with a large-scale model, making it possible to analyze hundreds of scenarios before coming to a consensus.

The importance of logistics in the circular economy of agricultural enterprises

The article is intended to show the role of logistics in the circular economy. This is because it encompasses the actual flow of products from their source of production to the final consumer, taking into account all the tasks and activities involved, ensuring efficient, sustainable and economic processes. Circular economy aims to maximise product value through eco-design, increased sustainability, improved quality, eco-efficiency and the widespread use of renewable materials. This approach promotes waste reuse, recycling and recovery, as well as treating waste as a valuable resource. The agricultural industry deserves special attention in the context of the circular economy, so improvements have been proposed to change the agricultural enterprise to a greener and more practical one that applies the principles of the circular economy. Thus, biogas production, the transportation of slurry via pipeline system and the creation of an on-site photovoltaic panel farm were suggested. The application of these improvements could make the company independent and use only its resources. Furthermore, by using renewable energy sources, the company could increase its competitiveness in the market, become an independent entity and reduce its operating costs, all while increasing its efficiency.

Study on reverse logistics and its significant importance – review

Reverse logistics (RL) has become increasingly significant in the field of supply chain and operation systems in recent years. One of the key components of operation and supply chain systems for carrying out business activities in a more methodical and effective manner to boost value addition for end users is reverse logistics. Returning final used goods from the customer's end to the manufacturer via a store is known as reverse logistics. The main purpose of reverse logistics is to make the final product flow from customer back to seller or manufacturer in order to reuse the product by recycling this reduces the cost of remanufacturing the product also it adds value to the customers through recycling the product. In this article attempt has been made to conduct extensive survey on logistics and its significant role in supply chain operations. In addition to that literature analysis is done by referring from various top-rated journals around the globe. The survey questions were prepared to collect the inputs from various customers to further reframe the design of Reverse logistics.

Production and optimisation of a well by hybrid artificial activation

This paper focuses on proposing a hybrid activation mechanism for the production and optimisation of a well called X101 (for confidentiality reasons), which has become non-eruptive. Completion, pressure, volume, temperature (PVT), reservoir, and the X101 well profile data are processed by Pipesim and Excel software and integrating a certain number of calculations using nodal and decline curve analysis methods. The activation of the X101 well by an electric submersible pump (ESP) having 450 stages provided an oil production flow rate of 9189.329 stock tank barrels per day with a bottom-hole pressure of 2746.151 psi. Over time, the X101 well activated by the ESP having 450 stages faces a succession of maintenance operations occurring in very short time intervals following the reduction in the efficiency of the ESP. To overcome the problem of frequent maintenance which disrupts production times, the gas lift is added to the X101 well activated by a new ESP having 199 stages. The installation of the gas lift reveals that the adequate gas injection flow rate is 2 million standard ft3 per day and 2 valves must be installed at 4,959 ft and 3,966 ft to suitably meet the production requirements. The X101 well activated by the combination of ESP and gas lift delivered a production flow rate of 7954.601 stock tank barrels per day with a bottom-hole pressure of 2873.623 psi and its optimisation made it possible to obtain a net oil flow rate of 9,035 stock tank barrels per day at the bottom-hole pressure of 2,762 psi. The profitability of the X101 well activated by the combination of ESP and gas lift is USD 73,163,517 for a return on investment after 9 months and 22 days for 13 years of production.

Sustainability language found in forest plans and its mathematical modeling potential

Over the last fifty years, management plans have become more descriptive with regard to the potential sustainability of forest systems, raising questions about the feasibility of implementing management activities and ensuring the sustainability of a wide variety of ecosystem services. To assess this issue, we conducted a survey among forest planning and operation research communities in the United States to understand their perceptions regarding the potential of a sample of sustainability statements currently used in national forest plans to be incorporated into optimization models or other mathematical operations. A total of 65 people responded to the survey, resulting in a response rate of 16.5%. Almost 70% of the respondents reported having over 30 years in their specified fields. The results revealed that only 3 out of 15 statements from the sample were deemed to have relatively mature or firm methodologies and data to enable inclusion in modern mathematical models for land use optimization. Of the three statements, two were related to economic sustainability, offering quantifiable information such as a non-declining flow of wood products over time and limits on the amount of timber harvested per decade. In contrast, sociocultural and, to some extent, ecological statements regarding sustainability were generally perceived to be more difficult to translate into mathematical modeling efforts. Particularly challenging were statements corresponding to sustaining natural or scenic characteristics of a forest. These findings may be attributed to various factors, including a lack of measurable indicators for sustainability and a potential lack of understanding about the modeling components and their interactions with planned management activities.

Features of the interaction of the combustion front of diluted methane–oxygen mixtures with hollow cylindrical and conical obstacles at low pressures

It was shown that the front of the flame of a well-mixed diluted methane–oxygen mixture at 298 K and 100–300 Torr propagating to the ends of hollow cylindrical and conical obstacles does not form a vortex shedding behind them; however, that instability occurs under the same conditions in the flow of hot products after the obstacles. To find out the reason that vortex shedding is not observed behind the obstacle at flame propagation, but vortex shedding appears in the course of propagation of a reflected stream of hot products, we consider the curved flame front. Let us show that the thermal conductivity should reduce the curvature of the flame and lead to its stabilization. Indeed, the convex areas of the chemical reaction zone in a combustible mixture in relation to the cold ones shall give up more heat than in a flat flame: the heat from these is not only transmitted forward in the direction of flame propagation, but also in the lateral directions. The resulting cooling of the reaction zone will cause the backlog of the areas of the flame that burst forward. The opposite situation will be for concave areas where the temperature rises for the same reasons, reactions rates increase, and they spread forward faster as the flame spreads. Thus, the surface of the curved front of the flame aligns. In other words, the thermal conductivity has a stabilizing effect on the curved flame. This effect is missing in non-reactive gas. The calculations showed that the main observed feature of the flame front propagation against an obstacle in the form of a cylinder is taken into account: vortex shedding is not observed behind the obstacle at flame propagation; the simple consideration was given above. Thus, the qualitative model of compressible non-reactive/reactive Navier–Stokes equations in low Mach number approximation allows obtaining both the mode of the emergence of von Karman instability in chemically inert gas and the absence of the mode for flame propagation.

Research on Composite 3D Well Pattern for Blocky Heavy Oil in Offshore Areas: Transition from Huff-and-Puff to Displacement-Drainage

In view of the deep burial depth, high formation pressure, and presence of top and bottom water in offshore extra-heavy-oil reservoirs, this paper conducts a study on the production performance and flow field variation law of steam huff-and-puff to steam flooding conversion in thick heavy-oil reservoirs based on physical simulation, and analyzes the development effect of the conversion from steam huff-and-puff to steam flooding. On this basis, by comprehensively considering the advantages of gravity-assisted steam flooding and a three-dimensional HHSD well pattern obtained from physical simulation experiments, this paper proposes a well pattern development mode of steam huff-and-puff to composite displacement and drainage, and analyzes the development effect of this well pattern mode using the reservoir numerical simulation method. The research results show that, compared with the planar well pattern of steam huff-and-puff to steam flooding conversion, the adoption of the three-dimensional well pattern can significantly improve the degree of reservoir production and the expansion dynamics of the steam chamber, and mitigate adverse effects such as the increase in water cut caused by top and bottom water on thermal recovery. The composite development of steam huff-and-puff to composite displacement and drainage can be divided into three stages: thermal communication, gravity drainage-assisted steam flooding, and thermal breakthrough erosion and oil washing. The steam chamber presents a development mode of “single-point development–rapid longitudinal expansion–rapid transverse expansion upon reaching the top–polymerization into a sheet”, and simultaneously possesses the oil displacement mechanisms of both steam displacement and gravity drainage. The proposed composite mode of steam huff-and-puff to composite displacement and drainage has guided the implementation of adjustment wells in the Bohai L Oilfield, and the recovery factor has been increased by about 20% compared with the steam huff-and-puff development of the basic well pattern. This study has reference and guiding significance for the efficient thermal recovery development of this oilfield.

The Impact of Executive Functions and Musicality on Speech Auditory-Motor Synchronization in Adults Who Stutter.

Stuttering is a neurodevelopmental disorder that disrupts the timing and rhythmic flow of speech production. There is growing evidence indicating that abnormal interactions between the auditory and motor cortices contribute to the development of stuttering. The present study investigated speech auditory-motor synchronization in stuttering adults and the influential factors behind it as compared to individuals without stuttering. Sixteen Mandarin-speaking adults with stuttering and 19 fluent controls, who were matched for age, gender, and years of musical training, participated in the current study. Their ability to synchronize vocal speech production with accelerating auditory sequences was assessed using the spontaneous speech-to-speech synchronization test (SSS test). Additionally, all participants conducted a series of standardized behavioral tests to evaluate their musicality and executive functions. Stutterers achieved significantly lower phase locking values in the SSS test compared to nonstuttering controls, indicating a potential rhythmic processing deficit in developmental stuttering. Moreover, the strength of speech auditory-motor synchronization in stutterers was significantly associated with their performance in tasks such as digit span and nonword repetition. This finding further emphasizes the strong link between rhythmic processing and working memory. This study provides compelling evidence for the speech rhythmic deficit in individuals with stuttering by incorporating auditory-motor processes. It would offer valuable insights into the intricate relationship between language and the brain and shed light on the potential benefits of cognitive training for speech intervention in individuals with stuttering difficulties. https://doi.org/10.23641/asha.27984362.

Optimizing Type Well Construction: A New Approach for Scaling in Multiply Fractured Horizontal Wells

This paper outlines a straightforward method to standardize production histories from analog wells to common reference conditions, including average permeability in the stimulated reservoir volume, fracture half-length, stage spacing, and lateral length. The scaling technique addresses variations among analog wells in a region, crucial for constructing representative type wells and reducing uncertainty in statistical analyses. Grounded in well-established analytical solutions for constant bottom hole pressure production and transient linear flow in multiply fractured horizontal wells, the study introduces the "A-root k" analysis for estimating average fracture length and a depth of investigation equation for average permeability in the stimulated reservoir volume. Scaling involves expressing transient linear flow variables in dimensionless terms, enabling the normalization of rate-time profiles to selected reference conditions. Averaged scaled profiles yield mean, P90, P50, and P10 type wells, which can be further rescaled to design conditions for undrilled wells. The workflow, demonstrated with field examples, facilitates type well construction at desired probability levels from analog wells grouped into a few bins based on scaled production profile similarities. This approach proves effective, typically requiring one or two bins for a given resource play area.

Clarification of fire characteristics in a road tunnel based on numerical and laboratory studies

Critical velocity for longitudinal ventilation, as is accepted under the emergency ventilation strategy, is a decisive factor to prevent backlayering. The results of physical and thorough numerical modeling showed that the critical velocity in inclined tunnels in case of descending ventilation and of strong fires would no longer be an important indicator within the projects. Besides, the location of the fire has a significant impact on the thermal physics and aerodynamics of the ventilation flow and the surrounding mining massif. A natural consequence of this is significant variation in critical velocity and backlayering length, which greatly affects the planning and implementation of life-saving measures. The article presents scenarios of underground fire development and analysis of accompanying processes, performed using numerical modeling in the FDS environment. The variation of the critical velocity of longitudinal ventilation, the length of the reverse flow of combustion products and the gradient-factor depending on the fire power, tunnel geometry and other variabilities is shown. It is noted that the critical value of the Froude number, like the critical ventilation rate, are not constant values in complex processes occurring underground. Specific numerical examples show that thermally and mechanically conditioned ventilation flows are algebraically summed, and without considering these circumstances, the processes of rescuing people from underground fires will certainly become more complicated. The paper found, both theoretically and through numerical modeling, that severe fires in tunnels can cause dynamic pressures greater than the static pressure of the fans. The observed dynamic pressures can reverse downward ventilation flows in tunnels with slopes of 3% or more. This work puts on the agenda not only a thorough detailed description and analysis of fire cases, but also the need to develop a clear algorithm of actions taking into consideration the geometry, location, natural conditions and ventilation systems of a specific tunnel, taking into consideration also the scenario of the expected fire. The results obtained should be communicated to rescuers and tunnel service workers through theoretical studies and training. The proposed paper is socially oriented, aimed at improving emergency ventilation technology and thus increasing safety in case of fires in road tunnels, which is an important socio-political and public task.

Feasibility analysis of implementing a logistics integration center in amazon region using AHP

The celebrated and constant evolution of operating operations and market companies compensate for the integration of process participants and the need to promote new operating strategies, as well as the integration of process participants, as well as the need for integration of participants in the process resources involved in the supply chain. From this scenario of need for evolution and modification of market relations, the use and implementation of outstanding projects of logistics integration centers as a way of improving the logistics reality. Corroborating this reality, the main objective of this research was to verify the feasibility and benefits generated from the implementation of a Logistics Integration Center in the State of Pará - CILOG, from the perspective of the demand for production flow, availability of modal and location. To verify the feasibility of production for implementation, foam consulted without data regarding load states and load locations in adjacent areas, as well as potential, functionalities and resources of the implementation systems, with flow as the main centers of selection and, systematic and systematic way, of the feasibility and evaluation of the benefits generated from the implementation of the needs of the demand for services of attendance of the neighboring states, as well as of the entrances for the attendance of the neighboring states demand of flow of the production, availability of modals and geographic location. For this, an A-SWOT hybrid methodology was applied to define the HP location criteria and the decision factors that characterize the implementation of logistics such as the Logistics Integration Center (CILOG) in the Amazon Region, as well as the definition of the best for this implementation, based on three local alternatives: Santarém, Alça Viária and Miritituba. With the evaluation, Santarém (on the banks of the Amazon River) was listed as the best location for the installation, from the perspective of locational, operational, relating to capacity and territories