INDUSTRIAL AI INFRASTRUCTURE

Turn technical chaos into structured assets.

100%Link Coverage

ZeroManual Entry

Real-timeSpec Validation

Stop letting unstructured specs, drawings, and safety reports break your digital thread. Bem is the deterministic AI pipeline that links your documents to your ERP.

Start Automating

Ingest Technical Data

Upload massive PDF packets, CAD renders, or legacy scans. Bem splits them into logical components (e.g., separating the 'Drawing' from the 'Bill of Materials').

Extract Attributes

Layout-aware models identify key engineering parameters (Voltage, Pitch, Tolerance) even in complex tables or handwritten notes.

Enrich & Link

Match extracted part numbers against your internal Master Data (SAP/Oracle). We resolve fuzzy matches and link documents to digital twins.

Automate the Factory Floor

From R&D specs to shop floor safety, Bem structures the data that powers your operations.

Unstructured Input

→

Extracted, enriched, and validated

Evals: 98.8% Passing

{
"scope":{
99%Confidence: 99%
The extracted value is an exact match to the text found in section 1.1, which describes the document's scope and intended use, aligning perfectly with the schema description.
"description":"This document is intended to provide electrical, mechanical, environmental and also process data to assist in the proper use and application of the ERM8 and ERF8 Series Edge Rate .8mm pitch connector set."
},
"materials":{
"contactMaterial":{
99%Confidence: 99%
The value 'Beryllium Copper (ERF8) and Phosphor Bronze (ERM8)' is explicitly stated as the contact material type in section 3.2.1.
"type":"Beryllium Copper (ERF8) and Phosphor Bronze (ERM8)"
},
"insulatorMaterial":{
99%Confidence: 99%
The value 'Black Liquid Crystal Polymer' is explicitly stated as the insulator material type in section 3.1.1.
"type":"Black Liquid Crystal Polymer"
}
},
97%Confidence: 97%
The value 'EDGE RATE HEADER/SOCKET' is directly stated in the 'Series' line at the top of each page, clearly identifying the product name as per the schema description.
"productName":"EDGE RATE HEADER/SOCKET",
98%Confidence: 98%
The value 'ERM8/ERF8' is explicitly stated in the 'Series' line at the top of each page, matching the schema description for the product series.
"productSeries":"ERM8/ERF8",
"processingSnPb":{
99%Confidence: 99%
The extracted value 'Sn63Pb37 or Sn62Pb36Ag02' is an exact match to the 'Alloy' specification under section 9.0 'PROCESSING, Sn63/Pb37', which describes the specific Tin-Lead solder alloys.
"alloys":"Sn63Pb37 or Sn62Pb36Ag02",
"reflowProfileParameters":{
"reflowZone":{
98%Confidence: 98%
The value '30-90 sec. max.' is directly extracted from the 'Reflow Zone' annotation within the SnPb reflow profile graph, accurately representing its specified duration.
"duration":"30-90 sec. max.",
95%Confidence: 95%
The input text for the SnPb reflow profile graph does not specify a 'time above temperature' threshold for the reflow zone, unlike the lead-free profile. Therefore, 'null' is the correct extraction as the information is absent.
"timeAboveTemperature":"null"
},
"soakingZone":{
98%Confidence: 98%
The value '60-90 sec. typical' is explicitly stated as the typical duration for the 'Soaking Zone' in the SnPb reflow profile graph.
"typical":"60-90 sec. typical",
98%Confidence: 98%
The value '2.0 min.max.' is directly extracted from the 'Soaking Zone' annotation in the SnPb reflow profile graph, representing its specified maximum duration.
"duration":"2.0 min.max."
},
"preHeatingZone":{
98%Confidence: 98%
The value '2.0-4.0 min. max.' is directly extracted from the 'Pre-heating Zone' annotation in the SnPb reflow profile graph, accurately representing its specified duration.
"duration":"2.0-4.0 min. max."
},
99%Confidence: 99%
The value '210-225 C' is explicitly stated as the 'Peak Temp.' in the SnPb reflow profile graph, matching the schema description for the peak temperature range.
"peakTemperatureRange":"210-225 C"
}
},
"revisionDetails":{
99%Confidence: 99%
The value 'Rev B' is consistently stated as the document revision on every page footer.
"revision":"Rev B",
97%Confidence: 97%
The value '1' is explicitly stated as the page number on the first page footer, which is a valid representation of 'the current page number'.
"pageNumber":"1",
99%Confidence: 99%
The value '2012-06-08' is correctly extracted and formatted from 'Rev Date: 06/08/12' found in the page footers.
"revisionDate":"2012-06-08",
99%Confidence: 99%
The value 'JRH' is consistently stated as the 'Spec Checked by' in the page footers.
"specCheckedBy":"JRH",
99%Confidence: 99%
The value 'DLD' is consistently stated as the 'Spec Approved by' in the page footers.
"specApprovedBy":"DLD",
99%Confidence: 99%
The value 'JTA' is consistently stated as the 'Rev Approved by' in the page footers.
"revisionApprovedBy":"JTA"
},
"processingLeadFree":{
99%Confidence: 99%
The extracted value 'Sn96.5/Ag3.0/Cu0.5 and Sn96.5/Ag3.5' is an exact match to the 'Alloys' specification under section 8.0 'PROCESSING, LEAD-FREE', which describes the specific lead-free solder alloys.
"alloys":"Sn96.5/Ag3.0/Cu0.5 and Sn96.5/Ag3.5",
"reflowProfileParameters":{
"reflowZone":{
98%Confidence: 98%
The value '90 sec max' is directly extracted from the 'Reflow Zone' annotation within the Lead-Free reflow profile graph, accurately representing its specified duration.
"duration":"90 sec max",
98%Confidence: 98%
The value '217 C' is explicitly stated as the temperature threshold for the 'Reflow Zone time above 217 C' in the Lead-Free reflow profile graph.
"timeAboveTemperature":"217 C"
},
"soakingZone":{
98%Confidence: 98%
The value '60-90 sec. typical' is explicitly stated as the typical duration for the 'Soaking Zone' in the Lead-Free reflow profile graph.
"typical":"60-90 sec. typical",
98%Confidence: 98%
The value '2.0 min.max.' is directly extracted from the 'Soaking Zone' annotation in the Lead-Free reflow profile graph, representing its specified maximum duration.
"duration":"2.0 min.max."
},
"preHeatingZone":{
98%Confidence: 98%
The value '2.0-4.0 min. max.' is directly extracted from the 'Pre-heating Zone' annotation in the Lead-Free reflow profile graph, accurately representing its specified duration.
"duration":"2.0-4.0 min. max."
},
99%Confidence: 99%
The value '235-255 C' is explicitly stated as the 'Peak Temp.' in the Lead-Free reflow profile graph, matching the schema description for the peak temperature range.
"peakTemperatureRange":"235-255 C"
}
},
"handlingInstructions":{
99%Confidence: 99%
The extracted value is an exact match to the text in section 7.1, which provides detailed handling instructions.
"description":"Care should be taken when handling with fibrous gloves or wipes. Since the tips of the terminals are slightly exposed, the material could snag as shown below:"
},
Enriched automatically from collection
"enrichedRelatedProducts":[
[
{
"data":{
"uuid":"f1e2d3c4-b5a6-9876-5432-10fedcba9876",
"pitch":"0.80 mm",
"series":"Edge Rate®",
"features":[
"56 Gbps PAM4 performance",
"Rugged Edge Rate® contact",
"Smooth broad milled contact surface for increased wear life",
"Positions: Up to 200",
"1.5 mm contact wipe",
"Stack Height: 7 mm–18 mm",
"Latching, differential pair and extended guide post options",
"360º shielding available (ERM8-S)",
"High mating cycles to 1,000",
"Voltage rating: 225 VAC/318 VDC max",
"SET Qualified Product",
"Final Inch® break out region data available",
"Automotive A-Series product available",
"Current rating: 2.2 A max"
],
"description":"0.80 mm Edge Rate® Rugged High-Speed Terminal",
"part_number":"ERM8-020-09.0-L-DV-K-TR",
"product_type":"High-Speed Board-to-Board Connector",
"mating_connector_series":"ERF8"
}
},
{
"data":{
"uuid":"a1b2c3d4-e5f6-7890-1234-567890abcdef",
"pitch":"0.80 mm",
"series":"Edge Rate®",
"features":[
"56 Gbps PAM4 performance",
"Rugged Edge Rate® contact",
"Smooth broad milled contact surface for increased wear life",
"1.5 mm contact wipe",
"High mating cycles to 1,000",
"Positions: Up to 200",
"Stack Height: 7 mm–18 mm",
"360º shielding available (ERF8-S)",
"Voltage rating: 225 VAC/318 VDC max",
"Latching and extended guide post options",
"SET Qualified Product",
"Final Inch® break out region data available",
"Automotive A-Series product available",
"Current rating: 2.2 A max"
],
"description":"0.80 mm Edge Rate® Rugged High-Speed Socket",
"part_number":"ERF8-020-05.0-L-DV-K-TR",
"product_type":"High-Speed Board-to-Board Connector",
"mating_connector_series":"ERM8"
}
}
]
],
"highFrequencyPerformance":{
"empiricalBoundaries":{
99%Confidence: 99%
The extracted value is an exact match to the text in section 6.1.1, which describes the DV configuration and insertion loss points.
"dvConfiguration":"DV configuration, readings based on -3db insertion loss point.",
99%Confidence: 99%
The extracted value is an exact match to the text in section 6.1.2, which specifies the system impedance for single-ended and differential pairs.
"systemImpedance":"50Ω and 100Ω for Single-Ended and Differential Pair respectively.",
96%Confidence: 96%
The value 'HERE' is the exact text used as a hyperlink in section 6.1.3 for complete test information, aligning with the schema's intent for a link reference.
"testInformationLink":"HERE"
},
"verticalSurfaceMountSingleEnded":{
99%Confidence: 99%
The extracted value is an exact match to the descriptive text provided under section 6.2 'Vertical Surface Mount - Single-ended'.
"description":"Standard configuration, single-ended signaling",
"performanceData":[
{
99%Confidence: 99%
The value 'Single-Ended' is directly extracted from the 'Signaling' column for the 7mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description aligns with this type of value.
"signaling":"Single-Ended",
99%Confidence: 99%
The value '10.5 GHz**' is directly extracted from the 'Performance' column for the 7mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies a performance value in GHz.
"performance":"10.5 GHz**",
99%Confidence: 99%
The value '7mm' is directly extracted from the 'Stack Height' column in the first row of the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the stack height.
"stackHeight":"7mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 7mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the configuration type.
"configuration":"Standard"
},
{
99%Confidence: 99%
The value 'Single-Ended' is directly extracted from the 'Signaling' column for the 10mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description aligns with this type of value.
"signaling":"Single-Ended",
99%Confidence: 99%
The value '8.0 GHz*' is directly extracted from the 'Performance' column for the 10mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies a performance value in GHz.
"performance":"8.0 GHz*",
99%Confidence: 99%
The value '10mm' is directly extracted from the 'Stack Height' column in the second row of the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the stack height.
"stackHeight":"10mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 10mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the configuration type.
"configuration":"Standard"
},
{
99%Confidence: 99%
The value 'Single-Ended' is directly extracted from the 'Signaling' column for the 16mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description aligns with this type of value.
"signaling":"Single-Ended",
99%Confidence: 99%
The value '5.5 GHz*' is directly extracted from the 'Performance' column for the 16mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies a performance value in GHz.
"performance":"5.5 GHz*",
99%Confidence: 99%
The value '16mm' is directly extracted from the 'Stack Height' column in the third row of the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the stack height.
"stackHeight":"16mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 16mm stack height in the 'Vertical Surface Mount - Single-ended' table (Section 6.2). The schema description specifies the configuration type.
"configuration":"Standard"
}
]
},
"verticalSurfaceMountDifferential":{
99%Confidence: 99%
The extracted value is an exact match to the descriptive text provided under section 6.3 'Vertical Surface Mount - Differential'.
"description":"Standard configuration, differential pair signaling",
"performanceData":[
{
99%Confidence: 99%
The value 'Differential' is directly extracted from the 'Signaling' column for the 7mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description aligns with this type of value.
"signaling":"Differential",
99%Confidence: 99%
The value '11.0 GHz**' is directly extracted from the 'Performance' column for the 7mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies a performance value in GHz.
"performance":"11.0 GHz**",
99%Confidence: 99%
The value '7mm' is directly extracted from the 'Stack Height' column in the first row of the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the stack height.
"stackHeight":"7mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 7mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the configuration type.
"configuration":"Standard"
},
{
99%Confidence: 99%
The value 'Differential' is directly extracted from the 'Signaling' column for the 10mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description aligns with this type of value.
"signaling":"Differential",
99%Confidence: 99%
The value '8.0 GHz*' is directly extracted from the 'Performance' column for the 10mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies a performance value in GHz.
"performance":"8.0 GHz*",
99%Confidence: 99%
The value '10mm' is directly extracted from the 'Stack Height' column in the second row of the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the stack height.
"stackHeight":"10mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 10mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the configuration type.
"configuration":"Standard"
},
{
99%Confidence: 99%
The value 'Differential' is directly extracted from the 'Signaling' column for the 16mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description aligns with this type of value.
"signaling":"Differential",
99%Confidence: 99%
The value '5.0 GHz*' is directly extracted from the 'Performance' column for the 16mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies a performance value in GHz.
"performance":"5.0 GHz*",
99%Confidence: 99%
The value '16mm' is directly extracted from the 'Stack Height' column in the third row of the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the stack height.
"stackHeight":"16mm",
99%Confidence: 99%
The value 'Standard' is directly extracted from the 'Configuration' column for the 16mm stack height in the 'Vertical Surface Mount - Differential' table (Section 6.3). The schema description specifies the configuration type.
"configuration":"Standard"
}
]
}
},
"multiConnectorProcessing":{
99%Confidence: 99%
The extracted value 'Constrained and Free Floating Board Alignment' is an exact match to the heading of section 11.1, which describes the type of board alignment.
"alignmentType":"Constrained and Free Floating Board Alignment"
},
"electricalCharacteristics":{
"insulationResistance":{
99%Confidence: 99%
The value 'EIA-364-21' is explicitly stated as the standard for Insulation Resistance in section 2.2.
"standard":"EIA-364-21",
99%Confidence: 99%
The value '> 50,000 MΩ' is explicitly stated as the insulation resistance in section 2.2.1.
"resistanceValue":"> 50,000 MΩ"
},
"currentCarryingCapacity":{
99%Confidence: 99%
The value 'EIA-364-70' is explicitly stated as the standard for Current Carrying Capacity in section 2.4.
"standard":"EIA-364-70",
99%Confidence: 99%
The value '1.8A/contact with 6 adjacent contacts powered' is explicitly stated as the capacity details in section 2.4.1.
"capacityDetails":"1.8A/contact with 6 adjacent contacts powered"
},
"lowLevelContactResistance":{
99%Confidence: 99%
The value 'EIA-364--23' is explicitly stated as the standard for Low Level Contact Resistance in section 2.3.
"standard":"EIA-364--23",
99%Confidence: 99%
The value '21.4 mΩ Max.' is explicitly stated as the maximum low level contact resistance in section 2.3.1.
"maximumResistance":"21.4 mΩ Max."
},
"dielectricWithstandingVoltage":{
99%Confidence: 99%
The value 'EIA-364-20' is explicitly stated as the standard for Dielectric Withstanding Voltage in section 2.1.
"standard":"EIA-364-20",
99%Confidence: 99%
The value '200 VAC' is explicitly stated as the working voltage in section 2.1.1.
"workingVoltage":"200 VAC",
99%Confidence: 99%
The value '800 VAC' is explicitly stated as the maximum breakdown voltage in section 2.1.1.
"maximumBreakdownVoltage":"800 VAC"
}
},
"mechanicalCharacteristics":{
"durability":{
99%Confidence: 99%
The value 'Δ LLCR: 1.5 mΩ Max.' is explicitly stated in section 4.3.1, representing the durability value.
"value":"Δ LLCR: 1.5 mΩ Max.",
99%Confidence: 99%
The value 'EIA-364-23' is explicitly stated as the standard for durability in section 4.3.
"standard":"EIA-364-23"
},
"normalForce":{
99%Confidence: 99%
The value '59.5 grams minimum @ 0.009" deflection' is explicitly stated in section 4.4.1, representing the normal force value.
"value":"59.5 grams minimum @ 0.009" deflection",
99%Confidence: 99%
The value 'EIA-364-04' is explicitly stated as the standard for normal force in section 4.4.
"standard":"EIA-364-04"
},
"matingUnmatingForces":[
{
99%Confidence: 99%
The value '7mm, 10 Position' is directly extracted from section 4.2.1 'SIZE: 7mm, 10 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"7mm, 10 Position",
99%Confidence: 99%
The value '2.9 Pounds' is directly extracted from section 4.2.1.1 'Maximum Mating Force: 2.9 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"2.9 Pounds",
99%Confidence: 99%
The value '0.5 Pounds' is directly extracted from section 4.2.1.2 'Minimum Unmating Force: 0.5 Pounds'. The schema description correctly identifies this as the minimum unmating force.
"minimumUnmatingForce":"0.5 Pounds"
},
{
99%Confidence: 99%
The value '7mm, 30 Position' is directly extracted from section 4.2.2 'SIZE: 7mm, 30 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"7mm, 30 Position",
99%Confidence: 99%
The value '6.2 Pounds' is directly extracted from section 4.2.2.1 'Maximum Mating Force: 6.2 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"6.2 Pounds",
99%Confidence: 99%
The value '2.5 Pounds' is directly extracted from section 4.2.2.2 'Minimum Unmating Force: 2.5 Pounds'. The schema description correctly identifies this as the minimum unmating force.
"minimumUnmatingForce":"2.5 Pounds"
},
{
99%Confidence: 99%
The value '7mm, 75 Position' is directly extracted from section 4.2.3 'SIZE: 7mm, 75 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"7mm, 75 Position",
99%Confidence: 99%
The value '16.2 Pounds' is directly extracted from section 4.2.3.1 'Maximum Mating Force: 16.2 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"16.2 Pounds",
97%Confidence: 97%
The value '6.5Pounds' is directly extracted from section 4.2.3.2 'Minimum Unmating Force: 6.5Pounds'. The value is correct, but the source text has a minor formatting issue (missing space between '6.5' and 'Pounds').
"minimumUnmatingForce":"6.5Pounds"
},
{
99%Confidence: 99%
The value '10mm, 10 Position' is directly extracted from section 4.2.4 'SIZE:10mm, 10 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"10mm, 10 Position",
99%Confidence: 99%
The value '2.2 Pounds' is directly extracted from section 4.2.4.1 'Maximum Mating Force: 2.2 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"2.2 Pounds",
99%Confidence: 99%
The value '0.7 Pounds' is directly extracted from section 4.2.4.2 'Minimum Unmating Force: 0.7 Pounds'. The schema description correctly identifies this as the minimum unmating force.
"minimumUnmatingForce":"0.7 Pounds"
},
{
99%Confidence: 99%
The value '10mm, 30 Position' is directly extracted from section 4.2.5 'SIZE:10mm, 30 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"10mm, 30 Position",
99%Confidence: 99%
The value '5.8 Pounds' is directly extracted from section 4.2.5.1 'Maximum Mating Force: 5.8 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"5.8 Pounds",
99%Confidence: 99%
The value '1.8 Pounds' is directly extracted from section 4.2.5.2 'Minimum Unmating Force: 1.8 Pounds'. The schema description correctly identifies this as the minimum unmating force.
"minimumUnmatingForce":"1.8 Pounds"
},
{
99%Confidence: 99%
The value '10mm, 75 Position' is directly extracted from section 4.2.6 'SIZE:10mm, 75 Position'. The schema description correctly identifies this as the size and number of positions.
"sizeAndPosition":"10mm, 75 Position",
99%Confidence: 99%
The value '14.7 Pounds' is directly extracted from section 4.2.6.1 'Maximum Mating Force: 14.7 Pounds'. The schema description correctly identifies this as the maximum mating force.
"maximumMatingForce":"14.7 Pounds",
99%Confidence: 99%
The value '6.5 Pounds' is directly extracted from section 4.2.6.2 'Minimum Unmating Force: 6.5 Pounds'. The schema description correctly identifies this as the minimum unmating force.
"minimumUnmatingForce":"6.5 Pounds"
}
],
"operationalTemperature":{
99%Confidence: 99%
The value '-55°C to +125°C' is explicitly stated as the operational temperature range in section 4.1.1.
"range":"-55°C to +125°C"
}
},
"environmentalCharacteristics":{
"gasTight":{
99%Confidence: 99%
The value 'EIA-364-36' is explicitly stated as the standard for Gas Tight testing in section 5.4.
"standard":"EIA-364-36",
"testConditions":{
99%Confidence: 99%
The value 'Nitric Acid Vapor' is explicitly stated as the gas exposure in section 5.4.2.1.
"gasExposure":"Nitric Acid Vapor",
99%Confidence: 99%
The value 'Within one hour of exposure' is explicitly stated as the measurement condition in section 5.4.2.4.
"measurements":"Within one hour of exposure",
99%Confidence: 99%
The value '60 Minutes +/- 5 Minutes' is explicitly stated as the exposure duration in section 5.4.2.2.
"exposureDuration":"60 Minutes +/- 5 Minutes",
99%Confidence: 99%
The value '50°C +/- 3°C' is explicitly stated as the drying temperature in section 5.4.2.3.
"dryingTemperature":"50°C +/- 3°C"
},
99%Confidence: 99%
The value '15.1 mΩ Max.' is explicitly stated as the post gas tight low level contact resistance in section 5.4.1.
"lowLevelContactResistance":"15.1 mΩ Max."
},
"thermalAging":{
99%Confidence: 99%
The value 'EIA-364-17' is explicitly stated as the standard for Thermal Aging in section 5.1.
"standard":"EIA-364-17",
"testConditions":{
99%Confidence: 99%
The value 'Test time condition B for 250 hours.' is explicitly stated in section 5.1.5.2 as the test time condition.
"testTime":"Test time condition B for 250 hours.",
99%Confidence: 99%
The value 'Test condition 4 at 105°C' is explicitly stated in section 5.1.5.1 as the test condition.
"testCondition":"Test condition 4 at 105°C"
},
99%Confidence: 99%
The value 'No Damage' is explicitly stated as the post thermal aging inspection result in section 5.1.1.
"inspectionResult":"No Damage",
99%Confidence: 99%
The value '100,000 MΩ' is explicitly stated as the post thermal insulation resistance in section 5.1.4.
"insulationResistance":"100,000 MΩ",
99%Confidence: 99%
The value '5.1 mΩ Max.' is explicitly stated as the post thermal low level contact resistance in section 5.1.2.
"lowLevelContactResistance":"5.1 mΩ Max.",
"dielectricWithstandingVoltage":{
99%Confidence: 99%
The value '200 VAC' is explicitly stated as the working voltage after thermal aging in section 5.1.3.
"workingVoltage":"200 VAC",
99%Confidence: 99%
The value '880 VAC' is explicitly stated as the breakdown voltage after thermal aging in section 5.1.3.
"breakdownVoltage":"880 VAC"
}
},
"thermalShock":{
99%Confidence: 99%
The value 'EIA-364-32' is explicitly stated as the standard for Thermal Shock in section 5.3.
"standard":"EIA-364-32",
"testConditions":{
99%Confidence: 99%
The value 'Immediate' is explicitly stated as the hot/cold transition in section 5.3.5.5.
"transition":"Immediate",
99%Confidence: 99%
The value '100' is explicitly stated as the number of thermal cycles in section 5.3.5.1.
"thermalCycles":"100",
99%Confidence: 99%
The value '+85°C +3/-0°C' is explicitly stated as the hot temperature in section 5.3.5.2.
"hotTemperature":"+85°C +3/-0°C",
99%Confidence: 99%
The value '-55°C +0/-3°C' is explicitly stated as the cold temperature in section 5.3.5.3.
"coldTemperature":"-55°C +0/-3°C",
99%Confidence: 99%
The value '30 Minutes/extreme' is explicitly stated as the dwell/configuration in section 5.3.5.4.
"dwellConfiguration":"30 Minutes/extreme"
},
99%Confidence: 99%
The value 'No Damage' is explicitly stated as the post thermal shock inspection result in section 5.3.1.
"inspectionResult":"No Damage",
99%Confidence: 99%
The value '>25,000 MΩ' is explicitly stated as the post thermal shock insulation resistance in section 5.3.4.
"insulationResistance":">25,000 MΩ",
99%Confidence: 99%
The value '1.7 mΩ Max.' is explicitly stated as the post thermal shock low level contact resistance in section 5.3.2.
"lowLevelContactResistance":"1.7 mΩ Max.",
"dielectricWithstandingVoltage":{
99%Confidence: 99%
The value '200 VAC' is explicitly stated as the working voltage after thermal shock in section 5.3.3.
"workingVoltage":"200 VAC",
99%Confidence: 99%
The value '800 VAC' is explicitly stated as the breakdown voltage after thermal shock in section 5.3.3.
"breakdownVoltage":"800 VAC"
}
},
"cyclicHumidity":{
99%Confidence: 99%
The value 'EIA-364-31' is explicitly stated as the standard for Cyclic Humidity in section 5.2.
"standard":"EIA-364-31",
"testConditions":{
99%Confidence: 99%
The value '10 Days' is explicitly stated as the test duration in section 5.2.5.3.
"duration":"10 Days",
99%Confidence: 99%
The value '+25°C to +65°C' is explicitly stated as the test temperature in section 5.2.5.1.
"temperature":"+25°C to +65°C",
99%Confidence: 99%
The value '90 to 95%' is explicitly stated as the relative humidity in section 5.2.5.2.
"relativeHumidity":"90 to 95%"
},
99%Confidence: 99%
The value 'No Damage' is explicitly stated as the post humidity inspection result in section 5.2.1.
"inspectionResult":"No Damage",
99%Confidence: 99%
The value '>100,000 MΩ' is explicitly stated as the post humidity insulation resistance in section 5.2.4.
"insulationResistance":">100,000 MΩ",
99%Confidence: 99%
The value '8.3 mΩ Max., 3.2 mΩ Max' is explicitly stated as the post humidity low level contact resistance in section 5.2.2.
"lowLevelContactResistance":"8.3 mΩ Max., 3.2 mΩ Max",
"dielectricWithstandingVoltage":{
99%Confidence: 99%
The value '200 VAC' is explicitly stated as the working voltage after cyclic humidity in section 5.2.3.
"workingVoltage":"200 VAC",
99%Confidence: 99%
The value '800 VAC' is explicitly stated as the breakdown voltage after cyclic humidity in section 5.2.3.
"breakdownVoltage":"800 VAC"
}
},
"mechanicalShock":{
99%Confidence: 99%
The value 'EIA-364-27' is explicitly stated as the standard for Mechanical Shock in section 5.5.
"standard":"EIA-364-27",
"testConditions":{
99%Confidence: 99%
The value '6 mSec.' is explicitly stated as the duration in section 5.5.6.2.
"duration":"6 mSec.",
99%Confidence: 99%
The value 'Half Sine' is explicitly stated as the waveform in section 5.5.6.3.
"waveform":"Half Sine",
99%Confidence: 99%
The value '100 G' is explicitly stated as the peak value in section 5.5.6.1.
"peakValue":"100 G",
99%Confidence: 99%
The value '3 Shocks/3 Axes (18 Total)' is explicitly stated as the number of shocks/direction in section 5.5.6.4.
"shocksDirection":"3 Shocks/3 Axes (18 Total)"
},
99%Confidence: 99%
The value 'No Damage' is explicitly stated as the post mechanical shock inspection result in section 5.5.1.
"inspectionResult":"No Damage",
99%Confidence: 99%
The value '>25,000 MΩ' is explicitly stated as the post mechanical shock insulation resistance in section 5.5.4.
"insulationResistance":">25,000 MΩ",
99%Confidence: 99%
The value '28.4 mΩ Max.' is explicitly stated as the post mechanical shock low level contact resistance in section 5.5.2.
"lowLevelContactResistance":"28.4 mΩ Max.",
99%Confidence: 99%
The value 'Passed/none observed' is explicitly stated for discontinuities/logic events in section 5.5.5.
"discontinuitiesLogicEvents":"Passed/none observed",
99%Confidence: 99%
The value '900 VAC' is explicitly stated as the post mechanical shock dielectric withstanding voltage in section 5.5.3.
"dielectricWithstandingVoltage":"900 VAC"
},
"randomVibration":{
99%Confidence: 99%
The value 'EIA-364-28' is explicitly stated as the standard for Random Vibration in section 5.6.
"standard":"EIA-364-28",
"testConditions":{
99%Confidence: 99%
The value '7.56 g rms' is explicitly stated as the g's RMS value in section 5.6.6.4.
"gsRMS":"7.56 g rms",
99%Confidence: 99%
The value '2 Hours/Axis, 3 Axes Total' is explicitly stated as the duration in section 5.6.6.3.
"duration":"2 Hours/Axis, 3 Axes Total",
99%Confidence: 99%
The value '50 to 2000 Hz' is explicitly stated as the frequency range in section 5.6.6.2.
"frequency":"50 to 2000 Hz",
99%Confidence: 99%
The value 'Test Condition V, Letter "B"' is explicitly stated as the test condition in section 5.6.6.1.
"testCondition":"Test Condition V, Letter "B""
},
99%Confidence: 99%
The value 'No Damage' is explicitly stated as the post vibration examination result in section 5.6.1.
"inspectionResult":"No Damage",
99%Confidence: 99%
The value '>25,000 MΩ' is explicitly stated as the post vibration insulation resistance in section 5.6.4.
"insulationResistance":">25,000 MΩ",
99%Confidence: 99%
The value '6.9 mΩ Max.' is explicitly stated as the post vibration low level contact resistance in section 5.6.2.
"lowLevelContactResistance":"6.9 mΩ Max.",
99%Confidence: 99%
The value 'Passed/none observed' is explicitly stated for discontinuities/logic events in section 5.6.5.
"discontinuitiesLogicEvents":"Passed/none observed",
99%Confidence: 99%
The value '900 VAC' is explicitly stated as the post vibration dielectric withstanding voltage in section 5.6.3.
"dielectricWithstandingVoltage":"900 VAC"
},
Enriched automatically from collection
"enrichedStandards":[
[
{
"data":{
"uuid":"d4e5f6a7-b8c9-0123-4567-890abcdef012",
"title":"Dielectric Withstanding Voltage",
"eiaCode":"EIA-364-20"
}
},
{
"data":{
"uuid":"4abcdef0-1234-5678-9abc-def01234567c",
"title":"Mechanical Shock",
"eiaCode":"EIA-364-27"
}
},
{
"data":{
"uuid":"0abcdef0-1234-5678-9abc-def012345678",
"title":"Gas Tight",
"eiaCode":"EIA-364-36"
}
}
]
]
},
"multiConnectorPlacementLimitations":{
99%Confidence: 99%
The extracted value is an exact match to the text in section 10.3, which describes the minimum spacing requirements.
"minimumSpacing":"Minimum spacing shall be dictated by circuit routing best practices and/or a .125" (3.17mm) wide rework keep out perimeter.",
99%Confidence: 99%
The extracted value 'ipg@samtec.com' is an exact match to the contact email provided in section 10.2 for multi-connector applications.
"contactInformation":"ipg@samtec.com",
99%Confidence: 99%
The extracted value is an exact match to the text in section 10.1, which describes the alignment requirements for multiple connectors.
"alignmentDescription":"When using multiple connectors on a printed circuit board, care must be taken to ensure proper alignment. Mated pairs of ERM8 and ERF8 Series Edge Rate connectors can be misaligned by no more than .006" (0.15mm) in the length and width directions."
}
}

Atomic Primitives for Industry

Industrial workflows are complex state machines. Bem decomposes them into atomic, optimizable functions.

01. INGEST

Ingest

Upload massive PDF packets, CAD renders, or legacy scans.

02. EXTRACT

Extract

Layout-aware models identify key engineering parameters.

03. ENRICH

Enrich

Match extracted part numbers against your internal Master Data.

04. VALIDATE

Validate

Ensure logical consistency and compliance with safety standards.

05. SYNC

Sync

Push structured assets to ERP, PLM, or MES systems.

Frequently asked questions

What types of documents does Bem handle for industrial workflows?

Bem processes engineering specifications, technical drawings, safety data sheets (SDS), inspection reports, bills of materials, and compliance certificates. Any structured or unstructured document in your manufacturing pipeline can be ingested and transformed.

How does Bem integrate with ERP and PLM systems like SAP or Oracle?

Bem pushes structured JSON directly to your ERP, PLM, or MES system via API. We support native integrations with SAP, Oracle, and Siemens Teamcenter, and can adapt to any system that accepts webhooks or REST payloads.

How accurate is Bem when extracting technical data from complex documents?

Bem uses layout-aware models purpose-built for tabular data, nested specs, and engineering notation. Extraction accuracy exceeds 99% on structured fields, and every output is validated against your defined schema before it reaches your systems.

Can Bem handle legacy or scanned documents?

Yes. Our vision models are trained on low-quality scans, faxed documents, and even handwritten annotations commonly found on shop floor paperwork. Bem reconstructs structured data regardless of the source format.

How does Bem help with compliance and safety standards?

Bem validates extracted data against configurable compliance rules, including OSHA, ISO, and industry-specific safety standards. Non-conforming documents are flagged automatically before they enter your downstream systems.

What deployment options are available?

Bem offers a zero-retention cloud environment, VPC deployment within your own infrastructure, and fully air-gapped on-premise installations. All options include SOC 2 Type II compliance and end-to-end encryption.

Enterprise-Grade Security

Your technical IP is sensitive. We treat it that way. Deploy Bem in your own VPC or use our zero-retention cloud environment.

View Security Specs→