Upgrade your home with Smart Heating. Now in stock! The reliable Envi Heater, now digital & smart. Connect to comfort with the exclusive Envi app or on-board digital thermostat. Control one or multiple heaters right from your smartphone (iOS & Android).
The Envi wall mounted panel heaters are the smarter, safer way to keep your family warm, all year round. Easy to install, simple to use, these revolutionary smart compact heaters deliver an energy-efficient heating solution at a fraction of the cost of central heat.
EnviMAX just got smarter! Still only one inch thicker than the original 500W Envi heater, the NEW 1000W Smart EnviMAX is the smartest and safest way to keep your family warm all year round. Easy to install and completely quiet, our revolutionary compact heaters deliver an energy-efficient heating solution at a fraction of the cost of central heat.
Envi is a more efficient and effective way to heat your home. Your Envi wall mounted panel heater lets you warm only the rooms you need. By selecting the specific spaces you want to heat using Smart Zone Heating, Envi heaters can reduce your heating bill by 50% or more, paying for themselves in months!
Envi heaters are a zone heating solution and are revolutionary, smart approach to heating homes and businesses affordably. Warm each individual room to exactly how you like it and make thermostat wars a thing of the past.
"I had a little problem getting the heater adapted to a very uneven wall in a 10 X 14 insulated shed I am making into a small wood shop, but after getting it mounted it has worked fine and kept the temperature at a steady degree of comfort and makes it easy to work around the heater since of the low profile."
"These are great little units that pack a ton of heat. They are super sleek and heat our over the garage in-law unit perfectly. The price is affordable for what you get. I have tried other brands and this one is by far the best looking and best heating unit I have purchased. "
Your Envi wall-mounted panel heater uses pure convection technology to gently heat your rooms, and natural airflow to distribute warmth without a fan. This also creates a safer environment for you and your loved ones, by helping to protect you against potential airborne illnesses in your home. The heaters allow you to warm each room individually, so you can avoid forced central heating that transfers air (and potential bacteria) between multiple rooms.
We are excited to introduce you to a curated collection of sustainably-advantaged packaging material made with 100% post-consumer waste (PCW) recycled fibers, industrial hemp, reclaimed cotton, and recycled jute for brands looking to extend their sustainability to the shelf.
The Envi Portfolio offers a comprehensive suite of high-performance, environmentally preferable, wood and alternative fiber-based options for retail and hospitality brands. Achieve balance between performance, aesthetics, environmental profile and economics by specifying Monadnock Envi for your next branding project.
Made with the environment in mind, all Monadnock Envi Portfolio products are Forest Stewardship Council Certified and manufactured carbon neutral (VERs) using 100 percent renewable Green-e certified wind powered electricity (RECs) under a third-party certified ISO 14001 Environmental Management System.
Entering the print design industry is an exciting journey from the spark of inspiration to the tangible feel of your finished work. But for new designers, navigating this path can be daunting. Dave Hopkins, founder of Print Design Academy and a passionate print design...
Monadnock Paper Mills, Inc., the oldest continuously operating paper mill in the United States, is pleased to announce Daniel J. Burke as the new Chief Financial Officer and Treasurer. Dan will be assuming the role following the upcoming retirement of Andrew Manns in the new year.
ENVI-met leads in holistic 3D modeling software for urban cooling and climate-adaptive urban planning. We prioritize sustainable urban development, essential for addressing climate change. Enhancing urban resilience and sustainability worldwide.
A comprehensive idealized study of different urban design strategies to improve human thermal comfort in the four climate regions of Morocco (subhumid and humid, arid with cold, winter arid climate and Saharan climate) using numerical simulations.
An ENVI-met microclimate model was employed and validated against measured data (air temperature, relative humidity, and wind speed) over two points with different surface properties in summer and winter. The model outputs were found to be in good agreement with the experimental data.
A comprehensive comparison study on the numerical modeling evaluation of urban green strategies in modifying the urban microclimate of the Greater Toronto Area during heatwaves event using both microscale (ENVI-met) and mesoscale (WRF) models.
Robust validations of the two models were carried out by comparing the model outputs (air temperature) to measured data. Results showed that the simulated outputs of both models have good agreements with measured data. In addition, both models confirm similar results in how greenery enhancements can improve human thermal comfort in a continental climate.
A compendious study on the evaluation of the impacts of tree location and arrangement in maximising their cooling potentials on outdoor microclimate and improving human thermal comfort using ENVI-met.
ENVI-met simulated outputs (air temperature) were validated with experimental measured data. Results showed that ENVI-met adequately simulates the air temperature by capturing the spatial location of local maxima in air temperature across the neighborhood in the morning and afternoon transects.
A comprehensive study that evaluates the cooling potential of different social housing neighborhood designs in reducing summertime energy consumption and improving the energy efficiency at the neighborhood scale over a desert climate.
An ENVI-met microclimate model was employed and validated by comparing its results with a series of air temperature measurements. It showed that ENVI-met simulated outputs have a good agreement with measured data.
To test the reliability of ENVI-met model, the model was run for 24 h and the outputs (air temperature) were compared with field measurement from a nearby weather station. The results showed a good agreement between the predicted and observational data.
The ENVI-met model simulated output (air temperature) was validated against measurement data. Validation results showed that the error merging is within the acceptable limit and that ENVI-met is a reliable tool for investigating the influence of vegetation on the urban thermal environment.
ENVI-met tree model simulation outputs were validated against measured data. The result showed that simulated canopy air temperature, solar radiation air absolute humidity and water vapor flux had a good agreement with measured data.
A comprehensive study that aimed to explore the major factors that influence the urban heat island in hot climatic conditions by adopting a subjective analysis using the Analytical Hierarchy Process (AHP) and the objective analysis represented by the ENVI-met simulation.
For the software validation, ENVI-met model simulations were validated with on-site measurement taken on the same date and time the experiment was conducted. The results showed a good agreement between the measured site temperature and the ENVI-met simulations.
An ENVI-met building model was employed and validated against measured variables. Validation results showed that simulated air temperature, relative humidity, wind velocity, and mean radiant temperature have a good correlation with measured data.
An ENVI-met microclimate model was employed to simulate the impact of different designs of urban green infrastructure. The model output (temperature) was validated against measured values over three different surfaces at heights 0 m and 1.5 m. The results showed that ENVI-met adequately forecast the variables. Thus the study confirms ENVI-met suitability over the region.
An exhaustive study that presents a novel and holistic approach to urban overheating mitigation through a combination of different heat mitigation strategies and quantifies the benefit of heat mitigation to human health, energy consumption, and peak electricity demand in a humid tropical city.
An ENVI-met microclimate model was employed and validated by comparing model outputs with experimental data obtained from a network of 14 temperature sensors in the city. Results showed that the simulated data showed a good agreement with observed meteorological station data generally.
An ENVI-met microclimatic model was employed in the numerical simulation. The results of the simulations were validated in three phases in which an alternating number of nesting grids were utilized while adjusting the meteorological boundary conditions. In each case, the simulated outputs (air temperature, relative humidity, and wind speed) were compared with measurement data. The results showed that ENVI-met outputs have a good agreement with experimentally measured data.
ENVI-met model outputs (air temperature) were validated against measured data. The results showed a good agreement between the measured and simulated air temperature, thus confirming the effectiveness of ENVI-met microclimate model in this climate.
A comprehensive study from the REALCOOL project that demonstrates the cooling potential of urban water bodies at the local scale during a typical heatwave day in summer in the Netherlands using ENVI-met microclimate model.
Results from an older ENVI-met version and a newer version (v4.1.3) for water temperature simulations were compared with experimental measurements. Results showed that ENVI-met v4.1.3 produced a more accurate result because of the flexibility in choosing the turbulent mixing and light absorption characteristics of water.
A rare paper that demonstrates the cooling capacity of the water-mist system in mitigating the impact of urban heat and assessed the capability of the ENVI-met model to adequately predict the microclimate perturbation in the misted area.
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