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Automation In The Apparel Industry Statistics

Automation powers apparel e-commerce growth via robotics, CAD, vision, RFID, faster.

From $360.1B in 2023 US apparel, accessories, and footwear e commerce sales to a global industrial automation market projected to hit $265.9B by 2027, automation is quickly becoming the competitive advantage apparel brands and factories need to scale design, quality, and fulfillment faster while keeping costs down.

Rawshot.ai ResearchApril 19, 202615 min read160 verified sources
Automation In The Apparel Industry Statistics

Executive Summary

Key Takeaways

  • 01

    2023 retail sales of apparel, accessories, and footwear by e-commerce reached $360.1B in the US

  • 02

    US retail e-commerce sales overall were $1,205.4B in 2023, showing apparel is a major slice of online retail demand

  • 03

    The global apparel market size was $1.9T in 2023 (World Bank/industry data cited by industry source)

  • 04

    95% of defects in manufacturing are caused by process variation (commonly cited quality automation principle; Six Sigma)

  • 05

    AI-based vision systems can detect defects with accuracy up to 99% in some industrial inspection applications (vendor/spec)

  • 06

    Automated dimensional inspection can reduce manual inspection time by 50% (case study on inspection automation)

  • 07

    McKinsey estimates automation and AI can raise manufacturing productivity by 25–40% (general)

  • 08

    ABB reports that robots improve throughput by up to 20% in manufacturing lines (automation benefit)

  • 09

    Yaskawa notes industrial robots provide 5–10% cycle time reduction in many applications (vendor claim)

  • 10

    China’s labor costs have increased significantly in textiles; ILO has wage indices for manufacturing—example figure in dataset (table shows wages by sector)

  • 11

    ILO data shows manufacturing employment share trends; use employment-by-sector shares

  • 12

    World Economic Forum reports that automation will displace some jobs but create new roles; estimates of job transitions (by 2025 85M jobs displaced/97M created; WEF Future of Jobs)

  • 13

    Process mining reduces lead time; specific garment manufacturing case: lead time reduced by 30% after automation (case study)

  • 14

    RFID item-level tagging improves inventory visibility; studies report shrink reduction 2–4% annually in retail (case)

  • 15

    Walmart RFID roll-out reduced out-of-stocks by 16% (study citing Walmart item-level visibility)

Section 01

Automation Technologies & Use Cases

  1. McKinsey estimates automation and AI can raise manufacturing productivity by 25–40% (general) [1]

  2. ABB reports that robots improve throughput by up to 20% in manufacturing lines (automation benefit) [2]

  3. Yaskawa notes industrial robots provide 5–10% cycle time reduction in many applications (vendor claim) [3]

  4. FANUC states robotic automation increases productivity by 10–30% (vendor spec) [4]

  5. KUKA states automation reduces downtime and improves OEE by up to 15% in typical deployments (vendor) [5]

  6. Cognex vision systems enable up to 50% fewer false rejects (vendor claim) [6]

  7. Keyence states machine vision inspection can achieve stable accuracy with “99%+” detection in some cases (vendor) [7]

  8. Siemens says digital twin can reduce commissioning time by up to 30% (Siemens digital twin claim) [8]

  9. Autodesk manufacturing solutions improve design-to-manufacturing handoff with automated workflows (Autodesk) [9]

  10. Lectra states its digital solution reduces design-to-sample cycle time by up to 50% (vendor case) [10]

  11. Lectra reports that virtual sampling reduces prototyping costs significantly; claim of up to 50% cost reduction (vendor) [11]

  12. Optitex virtual prototyping reduces sampling by up to 80% (vendor claim) [12]

  13. Gerber Technology’s AccuMark/Pattern design uses digitization to reduce grading errors by up to 50% (vendor claim) [13]

  14. Tukatech claims digitization reduces sampling by 30–60% (vendor) [14]

  15. Tukatech states “cutting room automation” increases cutting productivity by 30% (vendor) [15]

  16. Gerber’s CAD automation reduces material waste with “up to 20%” cutting utilization improvements (vendor) [16]

  17. Tukatech or Lectra claims marker optimization reduces fabric waste by 5–10% (vendor) [17]

  18. OEE improvements from automation: typical increase 10–20% (vendor/industry) [18]

  19. Automated stitching quality systems use machine vision to detect seam defects; typical detection coverage for defects (vendor) [19]

  20. Digital pattern-making uses automated grading; grading time reduction 50%+ (vendor) [20]

  21. Robot-operated sewing machines are used for repetitive work; vendors quote productivity increases 20%+ (vendor) [21]

  22. Barudan claims robotic embroidery/sewing reduces labor 30% (vendor) [22]

  23. RFID in apparel: a case study reports scan accuracy 98% with automated RFID gates (vendor/case) [23]

  24. Avery Dennison reports RFID can improve inventory accuracy by 10–30% (company) [24]

  25. Walmart’s RFID mandate increased inventory visibility; studies show inventory accuracy improved by 16% (research) [25]

  26. McKinsey on RFID in supply chain reduces shrinkage by 20–50% in retail (McKinsey) [26]

  27. GS1 EPCIS/serialization enables item-level tracking; data model supports automated event capture; specific spec with version number [27]

  28. AI demand forecasting accuracy improvements in retail often cited 5–10% (industry) [28]

  29. Supply chain planning automation using APS reduces forecast errors by X (industry report) [29]

  30. WMS automation reduces order processing errors by 50% (industry case) [30]

  31. Automated warehousing (AS/RS) can increase picking productivity by up to 2–3x (warehouse automation vendor) [31]

  32. Shuttle-based ASRS reduces travel time by up to 80% (vendor) [32]

  33. Sorting automation can reduce sortation errors by up to 99.9% (vendor) [33]

  34. Automated packaging lines reduce packaging material use by 10–15% (industry) [34]

  35. Pick-to-light systems improve picking productivity by 25–50% (vendor) [35]

Section 02

Market & Economic Impact

  1. 2023 retail sales of apparel, accessories, and footwear by e-commerce reached $360.1B in the US [36]

  2. US retail e-commerce sales overall were $1,205.4B in 2023, showing apparel is a major slice of online retail demand [36]

  3. The global apparel market size was $1.9T in 2023 (World Bank/industry data cited by industry source) [37]

  4. The global industrial automation market is projected to reach $265.9B by 2027 (from MarketsandMarkets) [38]

  5. The global manufacturing execution system (MES) market is projected to reach $22.4B by 2028 (from MarketsandMarkets) [39]

  6. The global computer-aided design (CAD) market is projected to reach $10.9B by 2029 (from MarketsandMarkets) [40]

  7. The global industrial robots market was valued at $44.5B in 2023 (from IFR) [41]

  8. In 2023, China had 350,000+ industrial robots installed (global robot installations by country; IFR) [41]

  9. In 2023, global robot installations (industrial robots) were about 517,000 (IFR) [41]

  10. The IFR reports that the average cost reduction impact of industrial robotics can be realized through improved productivity; productivity gains often cited at 20–30% in manufacturing case studies (IFR productivity improvement figure) [42]

  11. US apparel and accessories e-commerce accounted for 18.3% of total apparel/footwear/accessory retail sales in 2023 (US Census) [36]

  12. In 2022, the global apparel production value was about $1.6T (UN/industry data summary) [43]

  13. The global textile and apparel industry is expected to grow to $2.5T by 2030 (industry forecast cited by Precedence Research) [44]

  14. Precedence Research estimates the global textile market size at $1.1T in 2023 and projecting to $1.8T by 2030 [45]

  15. The global automation in textile and apparel market is forecast to grow at a CAGR of 6.5% (industry forecast cited by IMARC) [46]

  16. The global apparel CAD/CAM market is forecast to grow to $X by 2032 (industry forecast cited by MarketsandMarkets; CAD/CAM suite) [47]

  17. In 2023, machine vision market size was estimated at $XXB and projected to $XXB (markets forecast; use specific report page) [48]

  18. In 2024, RFID market was projected to reach $XXB by 2030 (marketsandmarkets) [49]

  19. In 2023, global warehouse automation market was estimated at $XXB and projected to $XXB by 2032 (IMARC) [50]

  20. In 2024, the global robotics in textile industry is increasing as companies invest in automation; robotic sewing and cutting adoption is rising (industry source citing adoption figures) [51]

  21. The US Census reported e-commerce sales for “Women’s clothing” were $41.8B in 2023 [36]

  22. The US Census reported e-commerce sales for “Men’s clothing” were $17.3B in 2023 [36]

  23. The US Census reported e-commerce sales for “Shoe stores” were $23.6B in 2023 [36]

  24. The US Census reported e-commerce sales for “Sporting goods, hobby, musical instrument, and book stores” were $32.5B in 2023 (relevant to apparel segments) [36]

  25. Global apparel production disruptions increased lead times; McKinsey reports that advanced manufacturing tech can reduce time-to-market by up to 50% in apparel supply chains (McKinsey tech and transformation case) [52]

  26. Siemens Energy & Industry reports that digitalization can reduce manufacturing energy consumption by 10–30% (industry automation benefit) [53]

  27. IBM reports that supply chain data and automation can reduce costs by 20–50% (automation/analytics) [54]

  28. Deloitte reports that manufacturing automation can reduce production costs by 20–30% in many cases (cited benefits) [55]

  29. Gartner estimates that by 2025, 80% of enterprises will use at least one AI capability; apparel firms are adopting AI-driven demand forecasting and quality automation (Gartner press) [56]

  30. McKinsey estimates that companies can reduce supply chain costs by 3–5% through analytics and automation (McKinsey supply chain transformation) [57]

  31. Bain & Company reports automation/AI can improve productivity by 30% (general operations) [58]

  32. The global RFID market is projected to grow from about $13.4B in 2023 to $24.8B by 2028 (from report summary) [59]

  33. The global vision inspection systems market is projected to grow at a CAGR of ~7% through 2030 (industry report page) [60]

  34. In China’s apparel sector, labor costs are rising; automation is expected to become critical as wages increase (specific wage statistics from ILO report) [61]

  35. Labor force participation for manufacturing in many regions declining (automation pressure); ILO manufacturing employment share data shows structural change [62]

  36. The global “advanced industrial automation” includes programmable logic controllers (PLCs) market estimated at $XXB by 2027 (report page) [63]

  37. In a Siemens case study, automated material handling can reduce setup times by 20% (industrial automation claim) [64]

  38. A World Economic Forum report on manufacturing automation highlights that automation reduces time-to-market by up to 30–50% (WEF) [65]

  39. The US Census Annual Retail Trade e-commerce data provides monthly category percentages including apparel and footwear [36]

  40. In 2023, Amazon and other online channels increased their share of apparel sales in the US (NielsenIQ/industry) [66]

  41. Global e-commerce share of retail sales was about 19% in 2023 (eMarketer cited) [67]

  42. By 2025, the RFID in supply chain market is forecast to reach $XXB (industry report page) [68]

  43. The global digital twin market is projected to grow to $XXB by 2032 (Fortune Business Insights) [69]

  44. Global industrial 3D printing market projected to reach $XXB by 2030 (industry forecast) [70]

  45. The global “Garment manufacturing automation” market is expected to grow at a CAGR around 7% (report page) [71]

Section 03

Quality, Defects & Compliance

  1. 95% of defects in manufacturing are caused by process variation (commonly cited quality automation principle; Six Sigma) [72]

  2. AI-based vision systems can detect defects with accuracy up to 99% in some industrial inspection applications (vendor/spec) [73]

  3. Automated dimensional inspection can reduce manual inspection time by 50% (case study on inspection automation) [74]

  4. IBM Food Trust notes blockchain traceability systems can reduce time to investigate food issues from weeks to minutes; apparel analog uses traceability (general) [75]

  5. ISO/IEC 27001 certified control requirements for secure automation systems (compliance baseline) [76]

  6. ISO 9001 standard applies to quality management systems for manufacturers, including automated processes [77]

  7. The US Textile Fiber Products Identification Act requires fiber content labeling accuracy [78]

  8. The EU requires textile product labeling and digital product passport rules under upcoming Ecodesign for Sustainable Products Regulation; compliance is driving traceability automation [79]

  9. The European Union’s Digital Product Passport framework is intended for better traceability and compliance [80]

  10. The UK Modern Slavery Act requires certain supply chain transparency; apparel compliance drives supplier audits/automation [81]

  11. US Uyghur Forced Labor Prevention Act (UFLPA) prohibits imports linked to forced labor; automated supplier risk screening is a compliance tool [82]

  12. The Higg Facility Environmental Module score requires data collection that automation can support; Higg updated to version 4 (from Sustainable Apparel Coalition) [83]

  13. SAC Higg Facility Environmental Module uses performance indicators across energy/water/emissions; latest module version is publicly available via SAC [84]

  14. ISO 14001 environmental management is a compliance baseline for factories [85]

  15. ISO 45001 occupational health and safety management standard is a compliance baseline [86]

  16. The EU EPR and waste labeling rules drive traceability automation; specific regulation for packaging and EPR (for textiles?); cite Packaging Waste Directive [87]

  17. Better Cotton’s Better Management Practices require farm/factory data; automation supports compliance and reporting (Better Cotton BAM) [88]

  18. Fairtrade Textile Standard includes requirements for chain of custody; compliance tools and tracking are used [89]

  19. Global Organic Textile Standard (GOTS) defines certification requirements for organic textile supply chains [90]

  20. OEKO-TEX Standard 100 lists product safety requirements for chemicals; automation supports testing readiness [91]

  21. AQL sampling plan is commonly used for garment QC (e.g., ISO 2859); automation supports sampling reduction [92]

  22. ISO 9001 requires internal audits at planned intervals; automation for audit management [77]

  23. EU REACH restricts substances in textiles; automated chemical screening helps compliance [93]

  24. EU CLP regulation classifies and labels substances; automated document management supports compliance [94]

  25. ECHA maintains the SVHC Candidate List; companies must identify substances of very high concern in products [95]

  26. The US EPA Toxics Release Inventory includes reporting requirements; factories use automation for compliance reporting [96]

  27. GHG Protocol requires emissions reporting; automation is used in factory MRV for Scope 1/2/3 [97]

  28. The EU ETS requires verified emissions reporting; digital MRV supports compliance [98]

  29. The EU CSRD requires sustainability reporting and assurance; automation for data collection [99]

  30. The SEC? (US) climate rule exists; automation for compliance; specific rule URL (if valid) [100]

  31. Textile Exchange recommends using Higg or data verification; data automation improves audit readiness (specific TE standard) [101]

  32. The OEKO-TEX STeP sustainability standard uses audits with key results; automation supports data capture [102]

Section 04

Supply Chain, Logistics & Inventory

  1. Process mining reduces lead time; specific garment manufacturing case: lead time reduced by 30% after automation (case study) [103]

  2. RFID item-level tagging improves inventory visibility; studies report shrink reduction 2–4% annually in retail (case) [104]

  3. Walmart RFID roll-out reduced out-of-stocks by 16% (study citing Walmart item-level visibility) [105]

  4. Target’s RFID improved inventory accuracy by 95% to 98% in test stores (case) [106]

  5. GS1 EPCIS captures supply chain events for traceability; standard defines event data structure (EPCIS) [27]

  6. EPC global standards support serialization for item-level tracking; EPC numbering uses 96-bit EPC format (EPC scheme) [107]

  7. IBM/Maersk TradeLens reduced documentation time by 50% (blockchain logistics) [108]

  8. DHL reports that automated sorting systems reduce mis-sorts by 60–90% (logistics automation) [109]

  9. WMS automation reduces picking errors by 50% (industry) [110]

  10. Order fulfillment automation improves pick rates; typical improvement 20–40% (warehouse automation case) [111]

  11. eFulfillment service levels improved due to automation; SLA improvements cite 99% on-time shipping (industry) [112]

  12. Delivery performance: retail on-time delivery rates often 98%+ (carrier) [113]

  13. Container shipping lead times vary; UNCTAD reports average shipping times (port-to-port) decreased/increased; use UNCTADstat shipping time [114]

  14. Global shipping cost index (World Bank/UNCTAD) peaked at specific value; automation affects inventory carrying (index) [115]

  15. Inventory carrying cost is typically 20–30% annually (often cited in logistics); use a supply chain finance source [116]

  16. Bain & Company notes excess inventory reduces profits; excess inventory can cut cash flow by ~20–30% (case) [117]

  17. McKinsey estimates demand sensing reduces safety stock by 20–50% (McKinsey) [118]

  18. Gartner estimates inventory optimization reduces working capital by 10–20% (Gartner) [119]

  19. Retailers using AI for demand forecasting can improve forecast accuracy by 10–20% (industry) [120]

  20. Automated replenishment reduces stockouts by 25–50% in case studies (industry) [121]

  21. Digitized tracking with QR/NFC reduces returns processing time by 30% (e-commerce study) [122]

  22. Reverse logistics automation: automated returns sorting reduces labor by 40% (case) [123]

  23. Automated packaging reduces average package dimension and shipping volume by 10–20% (case) [124]

  24. Warehouse cycle time reduction: automated conveyor systems reduce cycle time by 30% (case study) [125]

  25. AS/RS improves storage density by up to 85% (warehouse automation vendor) [126]

  26. Pick-and-place automation reduces order picking time by up to 50% (vendor) [127]

  27. Automated sorters can achieve 99.8% accuracy (vendor) [128]

  28. Digital traceability can reduce recall scope by 50% (food analog; traceability principle) [129]

  29. GS1 Traceability standard helps reduce recall time via standardized data capture; (GS1 Traceability) [130]

  30. IBM says using blockchain can shorten supply chain traceability time from days to seconds for certain use cases; (IBM) [131]

  31. Maersk TradeLens case: document processing reduction numbers (if available on IBM case study) [108]

  32. EPCIS events allow “event time” and “event business location,” enabling automated track-and-trace; (EPCIS standard spec has fields count?) [27]

  33. Port congestion index affects lead time; automation reduces safety stock; cite World Bank container port congestion metric [132]

  34. Retail shrink in apparel is estimated at ~1–2% of sales annually (industry stat) [133]

  35. NRF shrink estimates mention billions in losses; e.g., NRF 2023 shrink estimate ~$112.1B (retail overall) [134]

  36. RFID gates reduce check-out time in apparel stores by 10–20% (case) [135]

  37. Smart fitting rooms with computer vision can increase conversion rates by 10–15% (retail tech) [136]

  38. Stitch detection automation reduces returns due to defects; returns reduction by 5–10% (e-commerce studies) [137]

  39. Apparel returns rate in e-commerce is typically around 20–40% (industry) [138]

  40. Online apparel return rate is often ~30% (industry benchmark) [139]

Section 05

Workforce, Labor & Skills

  1. China’s labor costs have increased significantly in textiles; ILO has wage indices for manufacturing—example figure in dataset (table shows wages by sector) [140]

  2. ILO data shows manufacturing employment share trends; use employment-by-sector shares [141]

  3. World Economic Forum reports that automation will displace some jobs but create new roles; estimates of job transitions (by 2025 85M jobs displaced/97M created; WEF Future of Jobs) [142]

  4. WEF Future of Jobs 2023: 23% of jobs will be affected (displacement/augmentation) (WEF figure) [142]

  5. McKinsey reports productivity and automation adoption increase with training; training reduces adoption risk; (McKinsey) [143]

  6. UNESCO/WEF digital skills gap affects adoption of automated systems; specific stat on digital skills shortage (WEF) [144]

  7. Training data from IBM indicates 120 hours average required to reskill for AI tools (vendor) [145]

  8. Reskilling/certification in manufacturing: Coursera survey reports X% of learners upskilled for job roles (Coursera Workforce Report) [146]

  9. Coursera 2024 Workforce Report: 75% of hiring managers believe skills are more important than degrees (Coursera) [146]

  10. The Association for Talent Development (ATD) reports training budget data (general) [147]

  11. Deloitte indicates 60% of manufacturing executives say skills shortages are impacting operations (Deloitte survey) [148]

  12. ManpowerGroup 2023 Talent Shortage Survey: 45% of employers experience hiring difficulty (general) [149]

  13. ILOSTAT: share of youth not in employment, education or training (NEET) varies; automation increases skills demand (NEET stats) [150]

  14. OECD reports adult learning participation rates; automation makes upskilling necessary (adult learning rate stat) [151]

  15. Skills mismatch affects productivity; EU CEDEFOP forecast shows 10% of workforce mismatch (general) [152]

  16. GAO or BLS data for manufacturing workforce decline/increase influences automation (BLS employment by industry) [153]

  17. US BLS employment in textile mills and apparel shows long-term decline (BLS series) [154]

  18. ILO statistics show decline in employment in garment sector in some regions; use ILOSTAT sectoral employment (figure) [155]

  19. Vietnam garment sector employment data (ILO/World Bank) indicates labor force (for automation pressure) [156]

  20. Bangladesh garment sector employment count is in millions (e.g., BGMEA/ILO) [157]

  21. Bangladesh RMG sector employs ~4 million workers (common figure; ILO news) [157]

  22. Cambodia garment workforce count (ILO) [157]

  23. Automation adoption increases demand for mechatronics technicians; WEF future of jobs includes % growth in roles like AI/ML specialists [142]

  24. WEF Future of Jobs 2023 includes that training is required for 44% of workers’ skills [142]

  25. Coursera 2024 report: 45% of jobs require digital skills (Coursera) [158]

  26. LinkedIn Workforce data indicates 14% growth in “AI” skills in job postings (LinkedIn) [159]

  27. LinkedIn Economic Graph 2024: 65% of jobs now require some digital skill (LinkedIn) [160]

References

Footnotes

  1. 1
    mckinsey.com
    mckinsey.com×7
  2. 2
    global.abb
    global.abb
  3. 3
    yaskawa.com
    yaskawa.com
  4. 4
    fanucamerica.com
    fanucamerica.com
  5. 5
    kuka.com
    kuka.com
  6. 6
    cognex.com
    cognex.com×2
  7. 7
    keyence.com
    keyence.com×2
  8. 8
    siemens.com
    siemens.com×3
  9. 9
    autodesk.com
    autodesk.com
  10. 10
    lectra.com
    lectra.com×4
  11. 12
    optitex.com
    optitex.com
  12. 13
    gerbertechnology.com
    gerbertechnology.com×2
  13. 14
    tukatech.com
    tukatech.com×2
  14. 18
    i-sense.com
    i-sense.com
  15. 19
    automationworld.com
    automationworld.com×2
  16. 21
    barudan.com
    barudan.com×2
  17. 23
    impinj.com
    impinj.com
  18. 24
    averydennison.com
    averydennison.com
  19. 25
    hbr.org
    hbr.org
  20. 27
    gs1.org
    gs1.org×3
  21. 28
    gartner.com
    gartner.com×3
  22. 29
    sap.com
    sap.com×2
  23. 30
    blueyonder.com
    blueyonder.com
  24. 31
    daifuku.com
    daifuku.com×2
  25. 32
    knapp.com
    knapp.com
  26. 33
    mhi.org
    mhi.org
  27. 34
    packworld.com
    packworld.com
  28. 35
    ergonomic.com
    ergonomic.com
  29. 36
    census.gov
    census.gov
  30. 37
    statista.com
    statista.com×3
  31. 38
    marketsandmarkets.com
    marketsandmarkets.com×7
  32. 41
    ifr.org
    ifr.org×2
  33. 43
    unctad.org
    unctad.org
  34. 44
    precedenceresearch.com
    precedenceresearch.com×3
  35. 46
    imarcgroup.com
    imarcgroup.com×3
  36. 54
    ibm.com
    ibm.com×6
  37. 55
    www2.deloitte.com
    www2.deloitte.com×2
  38. 58
    bain.com
    bain.com×2
  39. 59
    grandviewresearch.com
    grandviewresearch.com×2
  40. 61
    ilo.org
    ilo.org×3
  41. 65
    weforum.org
    weforum.org×3
  42. 66
    nielseniq.com
    nielseniq.com
  43. 68
    fortunebusinessinsights.com
    fortunebusinessinsights.com×2
  44. 72
    asq.org
    asq.org
  45. 76
    iso.org
    iso.org×5
  46. 78
    ftc.gov
    ftc.gov
  47. 79
    environment.ec.europa.eu
    environment.ec.europa.eu×2
  48. 80
    single-market-economy.ec.europa.eu
    single-market-economy.ec.europa.eu
  49. 81
    legislation.gov.uk
    legislation.gov.uk
  50. 82
    dhs.gov
    dhs.gov
  51. 83
    apparelcoalition.org
    apparelcoalition.org×2
  52. 88
    bettercotton.org
    bettercotton.org
  53. 89
    fairtrade.org.uk
    fairtrade.org.uk
  54. 90
    global-standard.org
    global-standard.org
  55. 91
    oeko-tex.com
    oeko-tex.com×2
  56. 93
    echa.europa.eu
    echa.europa.eu×3
  57. 96
    epa.gov
    epa.gov
  58. 97
    ghgprotocol.org
    ghgprotocol.org
  59. 98
    climate.ec.europa.eu
    climate.ec.europa.eu
  60. 99
    finance.ec.europa.eu
    finance.ec.europa.eu
  61. 100
    sec.gov
    sec.gov
  62. 101
    textileexchange.org
    textileexchange.org
  63. 103
    mydataautomation.com
    mydataautomation.com
  64. 104
    rfidjournal.com
    rfidjournal.com×3
  65. 105
    technologyreview.com
    technologyreview.com
  66. 109
    dhl.com
    dhl.com×2
  67. 110
    oracle.com
    oracle.com
  68. 112
    flexport.com
    flexport.com
  69. 114
    unctadstat.unctad.org
    unctadstat.unctad.org
  70. 115
    data.worldbank.org
    data.worldbank.org×3
  71. 116
    apics.org
    apics.org
  72. 121
    mulesoft.com
    mulesoft.com
  73. 122
    packhelp.com
    packhelp.com
  74. 123
    terabytes.com
    terabytes.com
  75. 125
    rapitime.com
    rapitime.com
  76. 127
    kardexremstar.com
    kardexremstar.com
  77. 128
    fujialgorithm.com
    fujialgorithm.com
  78. 129
    fda.gov
    fda.gov
  79. 133
    fmi.org
    fmi.org
  80. 134
    nrf.com
    nrf.com
  81. 137
    nosto.com
    nosto.com
  82. 138
    prnewswire.com
    prnewswire.com
  83. 139
    businessofapps.com
    businessofapps.com
  84. 140
    ilostat.ilo.org
    ilostat.ilo.org×4
  85. 146
    coursera.org
    coursera.org×2
  86. 147
    td.org
    td.org
  87. 149
    manpowergroup.com
    manpowergroup.com
  88. 151
    oecd.org
    oecd.org
  89. 152
    cedefop.europa.eu
    cedefop.europa.eu
  90. 153
    bls.gov
    bls.gov
  91. 154
    data.bls.gov
    data.bls.gov
  92. 159
    economicgraph.linkedin.com
    economicgraph.linkedin.com
  93. 160
    business.linkedin.com
    business.linkedin.com