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Acrolab is a Windsor thermal-engineering company developing custom heat-transfer systems, heating and cooling equipment, and process tooling. For aerospace manufacturers, its role is principally in controlling the temperature of composite molds and tooling during autoclave or out-of-autoclave processing. Its work connects thermal design and analysis with heaters, sensors, insulation, controls and the physical tool rather than supplying a universal aircraft thermal system.
The Isobar family uses a sealed, evacuated heat pipe containing a working fluid. Fluid evaporates where heat enters, condenses in a cooler region and returns through a wick by capillary action. That phase-change cycle redistributes heat within a tool. Acrolab offers different heat-pipe forms and selects materials and fluids for the application. Isoplaten places a matrix of these heat pipes within a platen; Isomandrel applies the approach to distribute localized heating along a filament-winding mandrel.
These products serve different manufacturing arrangements. Isoplaten can combine electric or fluid heating with water cooling and temperature control. Isomandrel is described as curing at the winding station using induction or resistive heat without a separate oven. Acrolab also documents a different mandrel-in-oven project using film compaction, computer-controlled curing and mechanical extraction. Choosing among them starts with the part, process cycle and tooling interfaces, not a temperature or performance claim transferred across the product family.
Acrolab describes a project sequence of feasibility assessment, design recommendations, client approval, build, test, delivery and support. A composite-tool package may include heat pipes, heaters, sensors, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can redistribute autoclave heat passively or carry heat from a localized source into deep tool features or floating resin-transfer-molding mandrels.
A June 2021 company account gives a specific development example: two prototype heat-pipe assemblies for steel and carbon-composite molds, at roughly one-quarter of production-tool scale, tested direct heating and passive use of autoclave heat. Acrolab reported in-house testing before sending the assemblies to an unnamed customer for further experiments. This provides experimental context without establishing acceptance of a production tool.
The intended thermal cycle and acceptance method need to be agreed together. Isoplaten's page gives inconsistent uniformity statements in degrees Fahrenheit and Celsius over different surface proportions; those figures should not become a settled specification without clarification. An undated Mitacs project with the University of Windsor separately concerns aerospace and space-market research, production resources and financing strategy, rather than a completed product launch.
Acrolab lists its headquarters at Unit B, 3355 Munich Court, Windsor, Ontario, and describes Windsor-based research facilities. The NRC contribution independently identifies Acrolab Ltd. in Windsor. Its technology-licensing network includes two licensees in the United States and European Union; those relationships are distinct from the Canadian engineering and R&D base. The company also states that it is registered in Canada's Controlled Goods Program, without an independently inspected current registration scope in this evidence set.
Windsor, Ontario is the published city-level context for Acrolab. It does not imply a street address or exact facility location.
Open the mapAcrolab is relevant when a composite-production process needs tailored heat distribution, cooling or control within its tooling. Its engineering offer connects phase-change heat pipes with practical heaters, sensors and control packages, with distinct platen and mandrel configurations. The useful buying discussion concerns the required thermal cycle, tool geometry, control zones and acceptance method. Published prototype work provides a development example; the customer's intended process must establish its own temperature-uniformity and cycle-performance requirements.
Interpretation of the public record. Not qualification, endorsement or evidence of buyer interest.
Thermal engineering and process tooling
Acrolab offers custom thermal-engineering projects and Isobar-family products through its Windsor team. Delivery is scoped around feasibility, customer-approved design, build and testing. Prototype accounts and historical development funding should be distinguished from acceptance of a particular production tool.
NRC records a C$75,000 IRAP contribution to Acrolab Ltd. for first-off high-temperature sodium-based heat-pipe development under agreement 1017355, running from April 8, 2024, to March 17, 2025. This is a historical development contribution. The record does not report a post-project technical outcome, qualified product or amount of cash presently available.
The University of Windsor Mitacs business-strategy project discusses market expansion and a possible funding model but does not disclose an additional financing amount.
Research Program Partner
Mitacs identifies Acrolab as the company partner in a University of Windsor Business Strategy Internship examining aerospace product expansion.
Isobar heat pipes, Isoplaten platens and Isomandrel winding-station tools use different configurations. The Isoplaten page also gives conflicting uniformity units and surface proportions.
The company reports scaled composite-tool experiments, and the NRC record covers high-temperature sodium heat-pipe development ending in March 2025. Neither source reports acceptance of a new production application.
These records support the organization, its owned capabilities and their reviewed connections. A source count is not a count of independent confirmations.
Source type: official organization profile
Supports: Profile · description
Acrolab identifies headquarters and research facilities in Windsor and a technology-licensing network with two licensees in the United States and European Union. The company states that it is registered in the Canadian Controlled Goods Program. This is a company registration claim, not an aerospace product certification or government confirmation of current scope.
Supports: Profile · canadian footprint
Acrolab identifies headquarters and research facilities in Windsor and a technology-licensing network with two licensees in the United States and European Union. The company states that it is registered in the Canadian Controlled Goods Program. This is a company registration claim, not an aerospace product certification or government confirmation of current scope.
Supports: Profile · description
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Profile · website url
Acrolab: the cited Acrolab record supports website url — https://www.acrolab.com/.
Supports: Profile · profileData.publicContact.publicEmail
Acrolab: the cited Acrolab record supports public email — info@acrolab.com.
Source type: official company product
Supports: Profile · reviewed questions.acrolab-first-conversation.question
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Profile · operating context
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Source type: official company product
Supports: Profile · description
Isomandrel distributes localized induction or resistive heat along a filament-winding mandrel. Acrolab describes curing at the winding station without a separate oven, Monel or steel construction, optional water cooling and usually infrared temperature measurement. Standard range is stated as ambient to 650°F. Claimed cure-time savings over 25% and wall thickness over two inches lack published test conditions or named customer acceptance and are not universal guarantees.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Isomandrel distributes localized induction or resistive heat along a filament-winding mandrel. Acrolab describes curing at the winding station without a separate oven, Monel or steel construction, optional water cooling and usually infrared temperature measurement. Standard range is stated as ambient to 650°F. Claimed cure-time savings over 25% and wall thickness over two inches lack published test conditions or named customer acceptance and are not universal guarantees.
Source type: official company product
Supports: Profile · description
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Profile · operating context
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Source type: official company product
Supports: Profile · operating context
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Profile · reviewed questions.acrolab-first-conversation.context
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Public sources cited · Facts and assessments kept separate · Human review
Supports: Profile · name
Acrolab: the cited Acrolab record supports name — Acrolab.
Supports: Profile · commercial status
Acrolab identifies headquarters and research facilities in Windsor and a technology-licensing network with two licensees in the United States and European Union. The company states that it is registered in the Canadian Controlled Goods Program. This is a company registration claim, not an aerospace product certification or government confirmation of current scope.
Supports: Profile · executive relevance summary
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Profile · entity kind
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Profile · canadian footprint
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Profile · defence posture
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Profile · organization categories
Acrolab describes Windsor-based thermal engineering and research, Isobar-family products and Controlled Goods registration for aerospace and defence work.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab: the cited Acrolab record supports features — Custom thermal engineering and simulation.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab: the cited Acrolab record supports features — Custom thermal engineering and simulation.
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab: the cited Acrolab record supports features — Custom thermal engineering and simulation.
Supports: Profile · reviewed questions.acrolab-first-conversation.id
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Profile · reviewed questions.acrolab-first-conversation.context
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Profile · reviewed questions.acrolab-first-conversation.confidence
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Profile · description
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Engineered thermal management for aerospace composite tooling · summary
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Engineered thermal management for aerospace composite tooling · core features
Isoplaten uses a matrix of Isobar heat pipes within a platen to redistribute heat. Company options include electric, oil, water or steam heating, integral water cooling and usually a single thermocouple or RTD control zone, with multizone designs possible. Published standard range is −60°C to 250°C. The page inconsistently gives uniformity as ±1°F and ±1°C across 90% or 90–95% of the surface; these are not equivalent. Conventional multizone basic platens are a separate configuration.
Supports: Engineered thermal management for aerospace composite tooling · core features
Isomandrel distributes localized induction or resistive heat along a filament-winding mandrel. Acrolab describes curing at the winding station without a separate oven, Monel or steel construction, optional water cooling and usually infrared temperature measurement. Standard range is stated as ambient to 650°F. Claimed cure-time savings over 25% and wall thickness over two inches lack published test conditions or named customer acceptance and are not universal guarantees.
Supports: Engineered thermal management for aerospace composite tooling · summary
Isomandrel distributes localized induction or resistive heat along a filament-winding mandrel. Acrolab describes curing at the winding station without a separate oven, Monel or steel construction, optional water cooling and usually infrared temperature measurement. Standard range is stated as ambient to 650°F. Claimed cure-time savings over 25% and wall thickness over two inches lack published test conditions or named customer acceptance and are not universal guarantees.
Supports: Profile · commercial status
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · technology readiness level
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · technicaldomainslugs
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · capability type
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · technical tags
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · name
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · commercial availability
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · technical tags
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes feasibility assessment, design recommendations, client approval, build, test, delivery and support. Composite-tool integrations can include heaters, sensors, Isobar heat pipes, insulation, platens, electrical drawings, junction boxes, controls and installation. Heat pipes can passively redistribute autoclave heat or actively bring band-heater energy into deep features and floating resin-transfer-moulding mandrels. These are custom process-tool configurations, not a universal aircraft component.
Supports: Profile · reviewed questions.acrolab-first-conversation.question
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Profile · description
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Profile · executive relevance summary
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Profile · description
Acrolab describes autoclave and out-of-autoclave composite-tool work. Its mandrel-in-oven project combines film compaction, monitored computer-controlled oven curing and mechanical extraction; this is distinct from the Isomandrel at-winder no-oven configuration. A separate automotive three-zone 700°C project must not be used as an aerospace or Isomandrel temperature rating.
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Aerospace composite processing.
Supports: Engineered thermal management for aerospace composite tooling · technical tags
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · maturity
Acrolab: the cited Acrolab record supports maturity — Commercial thermal-engineering services with supplier-described aerospace projects..
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · commercial availability
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes autoclave and out-of-autoclave composite-tool work. Its mandrel-in-oven project combines film compaction, monitored computer-controlled oven curing and mechanical extraction; this is distinct from the Isomandrel at-winder no-oven configuration. A separate automotive three-zone 700°C project must not be used as an aerospace or Isomandrel temperature rating.
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Industrial thermal-process development.
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab describes autoclave and out-of-autoclave composite-tool work. Its mandrel-in-oven project combines film compaction, monitored computer-controlled oven curing and mechanical extraction; this is distinct from the Isomandrel at-winder no-oven configuration. A separate automotive three-zone 700°C project must not be used as an aerospace or Isomandrel temperature rating.
Supports: Engineered thermal management for aerospace composite tooling · name
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · technical tags
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · technicaldomainslugs
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · maturity
Acrolab: the cited Acrolab record supports maturity — Commercial thermal-engineering services with supplier-described aerospace projects..
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Industrial thermal-process development.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab: the cited Acrolab record supports features — Heating and cooling integration for composite tooling.
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Aerospace composite processing.
Supports: Engineered thermal management for aerospace composite tooling · capability type
Acrolab describes custom thermal-management projects for aerospace composite tooling using autoclave and out-of-autoclave processes.
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Aerospace composite processing.
Supports: Engineered thermal management for aerospace composite tooling · defence applications
Acrolab: the cited Acrolab record supports applications — Industrial thermal-process development.
Source type: official company product
Supports: Profile · description
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Profile · reviewed questions.acrolab-first-conversation.question
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Profile · reviewed questions.acrolab-first-conversation.id
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Profile · reviewed questions.acrolab-first-conversation.confidence
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Profile · reviewed questions.acrolab-first-conversation.context
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab describes a sealed evacuated heat pipe with a working fluid that evaporates at the hot end and condenses at the cooler end; a wick returns liquid by capillary action. Isobar configurations include straight, baffled, finned and stepped forms. Standard range is stated as 50–500°F, with special low-temperature designs available. The company claims approximately ±1°C lengthwise uniformity, without published application-specific acceptance data. Material/fluid selection governs each design.
Source type: official organization profile
Supports: Profile · profileData.publicContact.publicPhone
Acrolab: the cited Acrolab record supports public phone — 519-944-5900.
Supports: Profile · canadian footprint
Acrolab lists Unit B, 3355 Munich Court, Windsor, Ontario; info@acrolab.com and 519-944-5900 as public business contact routes.
Supports: Profile · primary location.city
Acrolab: the cited Acrolab record supports city — Windsor.
Supports: Profile · legal name
Acrolab: the cited Acrolab record supports legal name — Acrolab Ltd..
Supports: Profile · primary location.provinceterritory
Acrolab: the cited Acrolab record supports province territory — Ontario.
Supports: Profile · canadian footprint
Acrolab lists its headquarters at Unit B, 3355 Munich Court, Windsor, Ontario, with local telephone 519-944-5900.
Supports: Profile · profileData.publicContact.contactPageUrl
Acrolab: the cited Acrolab record supports contact page url — https://www.acrolab.com/contact-us/.
Supports: Profile · primary location.countrycode
Acrolab: the cited Acrolab record supports country code — CA.
Supports: Engineered thermal management for aerospace composite tooling · commercial availability
Acrolab lists Unit B, 3355 Munich Court, Windsor, Ontario; info@acrolab.com and 519-944-5900 as public business contact routes.
Open-Meteo / GeoNames
Source type: official report
Supports: Profile · primary location.longitude
Acrolab: the cited Open-Meteo / GeoNames record supports longitude — -83.01654.
Supports: Profile · primary location.latitude
Acrolab: the cited Open-Meteo / GeoNames record supports latitude — 42.30008.
Acrolab · Jun 5, 2021
Source type: official company news
Supports: Profile · reviewed questions.acrolab-development-evidence.id
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · reviewed questions.acrolab-development-evidence.context
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · reviewed questions.acrolab-development-evidence.confidence
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · operating context
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · commercial status
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Profile · reviewed questions.acrolab-development-evidence.question
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Engineered thermal management for aerospace composite tooling · summary
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
Supports: Engineered thermal management for aerospace composite tooling · maturity
Acrolab reported two prototype Isobar heat-pipe assemblies for steel and carbon composite moulds at roughly one-quarter production-tool scale. The prototypes tested direct heating and passive use of autoclave heat. After in-house work, the assemblies were sent to an unnamed customer for further experiments. This is supplier-reported prototype testing and customer experimental evaluation, not independently documented production acceptance.
National Research Council Canada
Source type: official report
Supports: Profile · canadian footprint
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Profile · reviewed questions.acrolab-development-evidence.context
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Profile · reviewed questions.acrolab-development-evidence.confidence
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Profile · reviewed questions.acrolab-development-evidence.id
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Profile · disclosed financing summary
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Profile · reviewed questions.acrolab-development-evidence.question
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Supports: Engineered thermal management for aerospace composite tooling · maturity
NRC lists a C$75,000 IRAP contribution to Acrolab Ltd., Windsor, for first-off high-temperature sodium-based heat-pipe development. Agreement dates are April 8, 2024 to March 17, 2025. The record establishes funded development, not achievement of a qualified product, revenue or cash currently available. No post-project outcome is reported in this record.
Source type: innovation program
Supports: Profile · executive relevance summary
Mitacs identifies Acrolab as the partner in a University of Windsor Business Strategy Internship assessing aerospace and space-market expansion.
Supports: Profile · operating context
The undated Mitacs Business Strategy Internship record with the University of Windsor concerns Acrolab aerospace/space market research, potential customers, production resources, funding model and possible launch planning. It does not establish a completed aerospace launch or production contract.
Supports: Profile · operating context
Mitacs identifies Acrolab as the partner in a University of Windsor Business Strategy Internship assessing aerospace and space-market expansion.
Supports: Profile · disclosed financing summary
The undated Mitacs Business Strategy Internship record with the University of Windsor concerns Acrolab aerospace/space market research, potential customers, production resources, funding model and possible launch planning. It does not establish a completed aerospace launch or production contract.
Supports: research_program_partner relationship
Source location: relationships.0.relatedOrganizationName
Acrolab: the cited Mitacs record supports related organization name — Mitacs.
Supports: research_program_partner relationship
Source location: relationships.0.publicSummary
Acrolab: the cited Mitacs record supports public summary — Mitacs identifies Acrolab as the company partner in a University of Windsor Business Strategy Internship examining aerospace product expansion..
Supports: research_program_partner relationship
Source location: relationships.0.relatedOrganizationSlug
Acrolab: the cited Mitacs record supports related organization slug — mitacs.
Supports: research_program_partner relationship
Source location: relationships.0.relationshipType
Acrolab: the cited Mitacs record supports relationship type — research_program_partner.
Source type: association directory
Supports: Engineered thermal management for aerospace composite tooling · core features
Acrolab: the cited AIAC record supports features — Isobar heat-transfer systems.
