Types Of Fabrics Research Articles

Article of RILEM TC 292-MCC: bond behaviour of textile-reinforced concrete—a review

Textile-reinforced concrete (TRC) has gained a lot of attraction in recent years. Adequate bond between the phases in this system allows to transfer high loadings, thus enabling high performance. The terminus textile reinforcement, however, comprises many different types of fabrics, which differ in their chemical composition, geometry, surface properties etc., and thus exhibit substantially different bond properties. In the course of RILEM’s Technical Committee 292 work on TRC it was found that a comprehensive understanding of the complex interactions between individual parameters is still lacking. This is amplified by the fact that different types of textile reinforcement are preferably used in different regions of the world. This paper therefore attempts to compile findings from literature on the bond in TRC. The database used was created in the course of the TC work. Additional papers of relevance were identified by scanning scientific web databases. The different influencing parameters are given in this paper in a hierarchical order, starting from the level of the individual constituents (filament and matrix) to impregnated fabrics and the influence of textile manufacturing and architecture on the bond. Finally, by mapping all the cited literature used in this paper based on grouped keywords the complex intercorrelations are visualised.

Effect of aging on the mechanical properties of woven fabric-reinforced calcined diatomite substituted cement-based composites

The mechanical characteristics of polyester and flax woven fabric-reinforced, diatomite-substituted, cement-based composites have been examined at different ages within the scope of this study. The use of calcined diatomite in combination with a cement-based matrix aims to improve the mechanical performance within the composite as well as reduce carbon emissions. The consistency of cement-based and diatomite-substituted matrices with water-to-binder proportions of 0.28 and 0.45 was maintained at a fixed flow diameter of 235 mm with the adjusted use of a superplasticizer. The stress–strain graphs of the composites were obtained using an axial tensile testing machine and Linear Variable Differential Transformers (LVDT). The tensile strength, ductility, toughness development, and multi-crack performance of WFRC were obtained as a function of fabric type and aging. The effects of aging on tensile properties are discussed separately for each fabric type. Polyester woven fabric-reinforced composites were found to be superior to flax WFRC in terms of several mechanical properties at all ages. The substitution of diatomite further improved the tensile performance of the polyester woven fabric-reinforced composites. The fabric-matrix interface densification role of diatomite was determined by SEM/EDS line analysis. Evidence of a pozzolanic reaction between portlandite and diatomite was obtained through microstructure studies. Carbon emission analysis revealed that equivalent CO2 emissions could be reduced using diatomite in woven fabric reinforced composites. However, diatomite substitution caused a cost increasing effect.

Estimating Cloth Simulation Parameters From Tag Information and Cusick Drape Test

AbstractIn recent years, the fashion apparel industry has been increasingly employing virtual simulations for the development of new products. The first step in virtual garment simulation involves identifying the optimal simulation parameters that accurately reproduce the drape properties of the actual fabric. Recent techniques advocate for a data‐driven approach, estimating parameters from outcomes of a Cusick drape test. Such methods deviate from standard Cusick drape tests, introducing high‐cost tools, which reduces practicality. Our research presents a more practical model, utilizing 2D silhouette images from the ISO‐standardized Cusick drape test. Notably, while past models have shown limitations in estimating stretching parameters, our novel approach leverages the fabric's tag information including fabric type and fiber composition. Our proposed model functions as a cascaded system: first, it estimates stretching parameters using tag information, then, in the subsequent step, it considers the estimated stretching parameters alongside the fabric sample's Cusick drape test results to determine bending parameters. We validated our model against existing methods and applied it in practical scenarios, showing promising outcomes. (see https://www.acm.org/publications/class-2012)

DESIGN OF CORPORATE CLOTHING: AESTHETIC AND ERGONOMIC ASPECTS

The article is devoted to the process of designing corporate clothing for employees and students of higher education of the Khmelnytskyi National University, which is considered as a system of "corporate style → corporate image → corporate clothing and its identity", including logos, colors, graphic elements and graphic standards of visual identification of the KhNU and their structure. Scientific novelty. The most characteristic artistic and compositional solutions and the typology of graphic elements used in the corporate style of KhNU as a means of communication for the creation of the image and brand of the higher education institution were analyzed and highlighted. Practical meaning. The developed systematization of the graphic elements of the corporate style of KhNU made it possible to generalize their artistic and compositional features and use them in the design of men's and women's corporate clothing for employees and students of higher education of the Khmelnytskyi National University for visual representation and broadcasting of the values and main characteristics of the educational institution. The process of creating a sketch and harmonizing the project image of corporate clothing with the help of an information model, which allows to present it as a single symbolic system with the help of modern practices of visual presentation of fashion innovations, is demonstrated. The design stages of corporate clothing samples are presented with the help of computer technologies, which provide clothing designers with wide visual and artistic opportunities in the context of modern communication practices. Artistic and design, constructive and technological solutions for men's and women's corporate clothing models were developed, which were produced under the conditions of the Ukrainian fashion brand ARTY Sport using a calender thermopress for sublimation. Testing of experimental samples of products took place at the exhibition dedicated to the Day of Science (Khmelnytskyi, KhNU, 2022). Research materials can be used in the development of corporate style and design of modern corporate clothing. The results of the study can be used in further scientific research on the design of other types of corporate clothing for employees and students of higher education of the Khmelnytskyi National University.

Two birds with one stone: A “needle-like” structure constructed on multifunctional PET fabric surface for flame retardancy and electromagnetic interference shielding

Here, a facile method is reported to prepare multifunctional PET fabrics with high flame retardancy, hydrophobicity and ideal electromagnetic shielding. PET fabric was firstly modified via polydopamine with mussel-like structure, and then DOPO@ZnO was constructed. A new type of composite PET fabric was prepared by simple, low-cost electroless Ni process and surface PDMS treatment (PpDPNP). The resulting composite fabric was extensively investigated for its stability and applicability in a complicated environment. The conductive interconnection network of modified fabric made it have excellent electrical conductivity and mechanical properties. Even after solution corrosion and washing, the prepared composite fabric could maintain a relatively stable electrical conductivity. The conductivity, tensile and elongation at break of composite fabric were 144.62 S/cm, 78.48 MPa and 167.49 %, respectively. The average electromagnetic interference shielding effectiveness (EMI SE) of PpDPNP reached 58.83 dB with 0.18 mm thickness and electroless Ni only 20 min at X-band, which was mainly due to large dielectric loss and multiple reflections. The modified PET fabric had self-extinguishing performance, and peak heat release rate (PHRR) and total heat release rate (THR) were 60.7 % and 59.8 % lower than pure PET fabric, respectively, indicating that the composite fabric had excellent flame retardancy.

Ecological dyeing and UV-protective functionalization of cotton/lyocell blend fabrics designed for high comfort summer clothing

Wearing clothes that absorb or block harmful UV radiation is one of the most effective forms of protection against sun damage and skin cancer. In the current study, sustainable processes which will provide high clothing comfort and a sufficient level of UV protection for fabrics used in production of lightweight sun-protective summer clothing were proposed. In accordance with the scope of the study, structural properties, low-stress mechanical properties, surface characteristics, permeability, and UV-protection properties of three woven fabrics produced with different weft settings and lyocell ratios were determined. The fabric type which had the most desirable results was selected for dyeing experiments. Avocado (Persea americana) seed was used as an eco-friendly source for dyeing and UV-protective functionalization of cotton/lyocell blend fabric. To obtain different hues, the fabrics were mordanted according to two different recipes using magnesium sulphate and ferrous sulphate and dyed with the natural colorant extracted from avocado seeds. Comfort, color, fastness, and UV-protective properties of dyed samples were evaluated by laboratory tests. Results indicated that it is possible to achieve an excellent level of UV protection (UPF 50+) by dyeing cotton/lyocell blend fabrics with avocado seed extract and produce summer clothing with improved comfort and UV-protective properties, without using any toxic materials.

Inactivation of microorganisms on fabrics using plasma-activated nebulized mist driven by different plasma gases

The disinfection of fabrics is crucial in preventing the spread of infectious diseases caused by pathogenic microorganisms to maintain public health. A previous study proved that plasma-activated nebulized mist (PANM) could effectively inactivate microorganisms both in aerosol and attached to the surface. In this study, the PANM driven by different plasma gases were employed to inactivate microorganisms on diverse fabrics. The PANM could efficiently inactivate a variety of microorganisms, including bacteria, fungi, and viruses, contaminating different fabrics, and even across covering layers of different fabrics. The mites residing on the cotton fabrics both uncovered and covered with various types of fabrics were also effectively inactivated by the PANM. After 30 times repeated treatments of the PANM, notable changes were observed in the color of several fabrics while the structural integrity and mechanical strength of the fabrics were unaffected and maintained similarly to the untreated fabrics with slight changes in elemental composition. Additionally, only trace amounts of nitrate remained in the fabrics after the PANM treatment. Therefore, the PANM treatment supplied an efficient, broad-spectrum, and environmentally friendly strategy for industrial and household disinfection of fabrics.

Investigation of a Building with Male and Female Residents to Achieve Equality of Thermal Sensation Associated with Rational Use of Exergy and Energy

The intensive use of air conditioning systems, primarily refrigerating, to promote thermal comfort in countries such as Brazil (a hot climate country) is changing the electrical energy consumption patterns and peak demand. Even with the increased number of appliances, we must learn to consume less energy to achieve similar outcomes with higher energy efficiency. Consequently, exergy analysis is used to evaluate the quality of these energy conversion systems. Four computational human thermal models were used to assess thermal comfort conditions: one man wearing lighter clothing, one man wearing traditional office clothing, and two women in the two types of clothing. We chose these four models since the body composition and basal metabolism rates for males and females differ. In addition, the insulation of clothes influences the temperature of the thermal environment, leading to a significantly lower percentage of people being unsatisfied, from 12.8% to values close to 5%. The outputs of these occupants are used as inputs for a computational model of the room to calculate its associated thermal loads and evaluate different temperature setpoints and their effects on thermal comfort and energy consumption. Results indicate that environmental temperatures above 24 °C and below 26 °C may lead to thermal comfort conditions, depending on the occupants’ clothing. Clothing would represent a thermal resistance of 0.7 CLO for men and women (when in the luteal phase of the menstrual cycle) and 0.8 CLO for women in the follicular phase when the environment is at 25 °C. Therefore, there is a significant reduction in the compression power of the central cooling system by about 2.2% compared to 24 °C and around 8% compared to ambient temperatures around 21 °C.

Protective and Comfort Performance of Fire Protective Clothing

The study examined the fire protection performance of several woven products. Given that the comfort and fire protection properties of fire protective clothing (FPC) are opposite, it is important to consider the specific needs of firefighters when selecting the most suitable structure from various plain-woven derivatives, such as plain, basket, and ripstop. The yarn used was Nomex IIIA, which is a type of meta-aramid fibre. To achieve different thread densities, the pick density was adjusted while keeping the end density constant. The physical characteristics, thermal protective performance, thermal resistance, thermal conductivity, water vapour transmission rate and air permeability of all samples were assessed according to the appropriate standards. The goal was to identify the weave structure with the highest performance and the most optimal thread density. The basket weave structure was proposed as a fire protective clothing (FPC) having comfort qualities at a moderate level. Furthermore, increased density provided enhanced fire resistance, however, comfort must be sacrificed. Thus, to achieve a balance between fire protection and comfort, it was recommended to choose a thread density that is of an average level and the suggestion made by this research is to use the fabric as a basket weave design with an ends per inch of approximately 42, it is recommended to retain the pick density within the range of 46 with 44 tex Nomex IIIA yarn. The results of this study may be replicated in other designs using Nomex IIIA and comparable types of cloth and weave specifications.

A microstructure-based parameterization of the effective anisotropic elasticity tensor of snow, firn, and bubbly ice

Abstract. Quantifying the link between microstructure and effective elastic properties of snow, firn, and bubbly ice is essential for many applications in cryospheric sciences. The microstructure of snow and ice can be characterized by different types of fabrics (crystallographic and geometrical), which give rise to macroscopically anisotropic elastic behavior. While the impact of the crystallographic fabric has been extensively studied in deep firn, the present work investigates the influence of the geometrical fabric over the entire range of possible volume fractions. To this end, we have computed the effective elasticity tensor of snow, firn, and ice by finite-element simulations based on 391 X-ray tomography images comprising samples from the laboratory, the Alps, Greenland, and Antarctica. We employed a variant of Eshelby's tensor that has been previously utilized for the parameterization of thermal and dielectric properties of snow and utilized Hashin–Shtrikman bounds to capture the nonlinear interplay between density and geometrical anisotropy. From that we derive a closed-form parameterization for all components of the (transverse isotropic) elasticity tensor for all volume fractions using two fit parameters per tensor component. Finally, we used the Thomsen parameter to compare the geometrical anisotropy to the maximal theoretical crystallographic anisotropy in bubbly ice. While the geometrical anisotropy clearly dominates up to ice volume fractions of ϕ≈0.7, a thorough understanding of elasticity in bubbly ice may require a coupled elastic theory that includes geometrical and crystallographic anisotropy.

Sustainability Strategy of Gringsing Woven Fabrics on the Basis of Multifunction Through the PROMETHEE Approach

Gringsing weaving is a multifunctional traditional fabric of Bali, it’s used in various activities such as traditional ceremonies, war rituals, souvenirs, fashion, and medication. The objectives of this research are: (1) Identifying respondent's perceptions of the multifunctionality of gringsing woven fabric (2) Analysing the sustainability strategy for gringsing woven fabric as a typical woven fabric of Tenganan Village. This research uses analytical methods, descriptive analysis to analyse respondents' perceptions of the multifunctionality of gringsing woven fabric involving 19 respondents (consisting of craftsmen and stakeholders) and Preference Ranking Organization METHODs for Enrichment Evaluation (PROMETHEE) analysis to analyse alternative sustainability strategies for gringsing woven. The research results show that respondents have a good perspective on the potential of gringsing woven as a modern fashion classic product with sustainable principles. An alternative priority sustainability strategy to make gringsing woven fabric a sustainable industry is to develop innovations in modifying gringsing woven fabric motifs.

Design, measurement, and demonstrating of a metamaterials with broadband and high transmittance for measuring the thermal conductivity of clothing fabrics samples

An all dielectric metamaterial sensor with smooth spectral lines resonance characteristics over a large frequency range is demonstrated and verified. The average transmittance and reflectance of the metamaterial sample are 0.734 and 0.201 in the frequency range of 4–30 THz. The effects of three important factors on the thermal conductivity of the outdoor clothing fabric samples are measured by using this metamaterial sensor: thickness, ambient temperature, and fabric type. The thermal diffusion coefficient of the fabric samples is decreased with the thickness increasing, which is enhanced by increasing the temperature. In addition, due to differences in preparation processes and materials, the type of fabric sample can also directly affect the thermal conductivity performance. The measurement results verify the feasibility of the metamaterial sensor to measure the thermal conductivity of outdoor clothing fabric samples.

Unravelling the Interplay between Materials, Senses and Perception in Magdalena Abakanowicz’s Weaving Art

This article comprehensively studies the multisensual experience in Magdalena Abakanowicz’s weaving art. While previous research in this context has focused on the erotic nature of her works, this study addresses the broader aspect of multisensual engagement. Drawing on a phenomenological approach and the philosophical contributions of Maurice Merleau-Ponty, it explores Abakanowicz’s involvement in creative and exhibition practices. The research incorporates insights from scholars such as Richard Shusterman, Mark Paterson and art historians. Using art historical analysis and direct haptic contact with Abakanowicz’s works, the study analyses the materials and techniques of three fabric types. The findings reveal that the enduring interest in the artist’s work lies in anthropomorphising quality that activates viewers’ senses, fostering a profound connection between the audience and art. The article demonstrates how Abakanowicz skilfully influences viewers’ senses and emotions through material choices, techniques, and personal involvement. Ultimately, it highlights the significance of considering sensory reflection as a crucial aspect of art historical analysis.

City-scale analysis of PV potential and visibility in heritage environment using GIS and LiDAR

Increasing the share of renewables, especially utilizing solar power in our energy mix is a highly prioritized aim of the EU. Budapest, the largest city and the capital of Hungary, contains almost 1 million flats in more than 190 thousand buildings, organized in various characteristic urban fabric types. Although on-site renewable energy production is severely limited in dense urban environments, the roofs offer a considerable potential to generate energy on-site.The present paper introduces a method to estimate the PV potential of rooftops on a large scale applying a GIS approach. Using LiDAR data, a Digital Surface Model (DSM) was created. The DSM was utilized to evaluate roof slope, orientation, and global irradiation. Solar potentials, available roof area, photovoltaic (PV) system capacities and estimated annual electricity production were derived from the GIS model. The method was used to develop an open access website called the Budapest Solar Map, which provides decision-makers with solar PV data. However, the nominal PV potential is limited by layers of heritage protection regulations that safeguard the sight of our case study area, Budapest, which is a World Heritage Site. Visibility is also surveyed with GIS and geometrical modeling from designated high points and from the street level, respectively.

Bioactive polyethylene-coated nonwovens for wound healing application

Bioactive non-woven dressings can be prepared by dip coating of non-woven cloth in solutions containing bioactive polyethylene bearing pendant arms of polyethylene (PE5000) and modified PEG3400-biomolecules including linear Arg-Gly-Asp (RGD), collagen fragment (Gly-Pro-Hyp)3, laminin-derived peptide (AGQWHRVSVRWGC) (A5G81) and hyaluronic acid (HA). Obtainment of ultimate coating concentration for each type of non-woven cloth is achieved such that the technically demanding bioactive polyethylene does not delaminate from the non-woven cloth itself but is of sufficient quantity for bioactivity. Scanning electron microscopy images show uniform polyethylene deposition on the non-woven cloth. Good water absorption and permeability allow the use of such bioactive polyethylene coated non-woven cloth as wound dressings. Material biocompatibility is demonstrated using in vitro human skin fibroblast assays. In vivo porcine full thickness excisional wound model shows PE5000-coated non-woven cloth can remarkably accelerate skin regeneration to close the wounds faster than clinical gold standard dressing. Thus, the results presented here may provide a promising guide for bioactive polyethylene-modified non-woven materials for wound dressing applications.

Analysis of the properties of bast raw materials as a component of fabric for military uniforms

The relevance of the present research is determined by the need to replace imported raw materials for manufacturing military clothing with Ukrainian raw materials of industrial hemp and oilseed flax. The aim was to analyse the quality properties of bast raw materials and determine their potential for use in military uniforms. In the course of solving the set goals, the methods of complex analysis, synthesis, observation, measurement, comparison and generalisation of the obtained results and information were applied, as well as standard methods generally accepted in the light industry were implemented. It is noted that hemp cottonin and oilseed flax fiber, in contrast to other natural fibers, are more durable, resistant to abrasion, decay, and are characterised by sanitary, antistatic, hypoallergenic and antibacterial properties. It has been revealed that fabrics made of these fibers are durable, have high resistance to ultraviolet radiation, hold colour well, do not fade, etc. The academic paper analyses scientific studies on the use of this raw material for various types of military clothing, protective body armour, and gunpowder production. By determining the main properties of the bast raw materials under study, the possibility of using this raw material in some types of military uniforms was established. The main feature of the structure and components of the research was the systematic and comprehensive study of the quality properties of bast raw materials at all stages of its processing. It was proposed to use oilseed flax fibers and hemp cottonin instead of cotton fibers in fabrics for military purposes. This will reduce the state’s material expenditures on the purchase of fabric for the defense sector and, at the same time, it will help bring the Ukrainian light industry to a new quality level and increase the competitiveness of Ukrainian manufactured goods in the global market. Knowledge of the properties of bast raw materials can help manufacturers improve the quality of fabrics for military purposes

Evaluation of tactile sensation for fabric handle – evidence from event related potentials

PurposeIn this paper, the brain potential changes caused by touching fabrics for handle evaluation were recorded by event related potential (ERP) method, compared with subjective evaluation scores and physical index of KES, explore the cognitive mechanism of the transformation of tactile sensation into neural impulses triggered by subtle mechanical stimuli such as material, texture, density and morphology in fabrics. By combining subjective evaluation of fabric tactile sensation, objective physical properties of fabrics and objective neurobiological signals, explore the neurophysiological mechanism of tactile cognition and the signal characteristics and time process of tactile information processing.Design/methodology/approachThe ERP technology was first proposed by a British psychologist named Grey Walter. It is an imaging technique of noninvasive brain cognition, whose potential changes are related to the human physical and mental activities. ERP is different from electroencephalography (EEG) and evoked potentials (EP) on the fact that it cannot only record stimulated physical information which is transmitted to brain, but also response to the psychological activities which related to attention, identification, comparison, memory, judgment and cognition as well as to human’s neural physiological changes which are caused by cognitive process of the feeling by stimulation.FindingsAccording to potential changes in the cerebral cortex evoked by touching four types of silk fabrics, human brain received the physical stimulation in the early stage (50 ms) of fabrics handle evaluation, and the P50 component amplitude showed negative correlation with fabric smoothness sensations. Around 200 ms after tactile stimulus onset, the amplitude of P200 component show positive correlation with the softness sensation of silk fabrics. The relationship between the amplitude of P300 and the sense of smoothness and softness need further evidence to proof.Originality/valueIn this paper, the brain potential changes caused by touching fabrics for handle evaluation were recorded by event related potential (ERP) method, compared with subjective evaluation scores and physical index of KES, the results shown that the maximum amplitude of P50 component evoked by fabric touching is related to the fabrics’ smoothness and roughness emotion, which means in the early stage processing of tactile sensation, the rougher fabrics could arouse more attention. In addition, the amplitude of P200 component shows positive correlation with the softness sensation of silk fabrics.

ShapeBoost: Boosting Human Shape Estimation with Part-Based Parameterization and Clothing-Preserving Augmentation

Accurate human shape recovery from a monocular RGB image is a challenging task because humans come in different shapes and sizes and wear different clothes. In this paper, we propose ShapeBoost, a new human shape recovery framework that achieves pixel-level alignment even for rare body shapes and high accuracy for people wearing different types of clothes. Unlike previous approaches that rely on the use of PCA-based shape coefficients, we adopt a new human shape parameterization that decomposes the human shape into bone lengths and the mean width of each part slice. This part-based parameterization technique achieves a balance between flexibility and validity using a semi-analytical shape reconstruction algorithm. Based on this new parameterization, a clothing-preserving data augmentation module is proposed to generate realistic images with diverse body shapes and accurate annotations. Experimental results show that our method outperforms other state-of-the-art methods in diverse body shape situations as well as in varied clothing situations.

Effects of textile type on the flexural properties of prefabricated hollow-core slabs strengthened with PVA fibers-improved TRM

In this study, the utilization of textile-reinforced mortar (TRM) in the strengthening and rehabilitation field is investigated. To regulate crack width, polyvinyl alcohol (PVA) fibers were incorporated into the TRM matrix. Nine prefabricated hollow-core slabs strengthened with TRM, along with one reference slab, were subjected to static loading using a 4-point bending apparatus. The experimental variables consisted of the type of textile (glass, basalt, and carbon) and the number of textile layers (one, two, and three layers). The experimental findings demonstrated that the inclusion of PVA fibers improved the TRM by effectively controlling crack width and increasing energy absorption capacity. Among the textile types, carbon TRM-strengthened slabs exhibited the highest flexural capacity. This capacity increased by 74%, 119%, and 132% for slabs strengthened with one, two, and three layers of textile, respectively. Glass TRM-strengthened slabs demonstrated superior deformability, with an increase rate ranging from 202% to 331%. Finally, to predict the flexural capacity and deflection of the tested slabs, a theoretical analysis was conducted and validated by comparing the theoretical predictions to the actual test results for accuracy and reliability.

Matrix deformation of marls in a foreland fold-and-thrust belt: The example of the eastern Jaca basin, southern Pyrenees

In this study, we used the Anisotropy of Magnetic Susceptibility (AMS) to investigate the matrix strain record of two calcareous shale formations, the Eocene Larrès and Pamplona Marls, along the eastern Jaca foreland fold-and-thrust belt (Southern Pyrenees). More than 1000 unoriented fragments, collected from 62 sites along 4 sub-parallel sections in the footwall of the regional Oturia thrust and through local Yebra anticline, were measured. The analysis of the degree of anisotropy (P’) and shape parameter (T) allowed to identify four types of magnetic fabrics. Type II fabrics associated with poorly deformed rocks are characterized by a relatively high anisotropy and an oblate shape. In contrast, type III fabrics, associated with strongly fractured rocks are characterized by the lowest anisotropy and a triaxial shape. Type IV and type V fabrics are characterized by increasing anisotropy and shape parameters, and are associated with the development of a weak to a slaty cleavage in rocks. The distribution of the magnetic fabric is roughly similar along the four studied sections. In the footwall of the Oturia thrust, magnetic fabrics evolve from the type V to type II over a 1000 m-long interval. By contrast, the distribution of magnetic fabric is roughly symmetric across the Yebra anticline, evolving from a dominating type II fabric in both limbs to mixed type III-type V fabrics within the 1 km-large hinge zone. The succession of the magnetic fabrics is interpreted as recording various degrees of matrix strain in response to thrusting and folding. The correlation of magnetic fabrics between the four sections highlights some along-strike variations in the extension of fabric domains that are interpreted as reflecting the local influence of 2nd-order factors, such as the syn-tectonic sedimentation. Results are integrated within the tectono-sedimentary framework of the studied area to propose a model of matrix strain related to the tectonic and sedimentary evolution of a foreland fold and thrust belt.