Attempt to model the Biotic pump. Are you working on climate and / or the Biotic Pump and want to join efforts, please contact me (marcel.planb@gmail.com) Marcel de Berg  Our-Green-Spine www.our-green-spine.org
Environment Biotic Pump Climate Water
Attempt to model the Biotic pump.

Are you working on climate and / or the Biotic Pump and want to join efforts, please contact me (marcel.planb@gmail.com)

Marcel de Berg 
Our-Green-Spine
www.our-green-spine.org
Biotic Pump model 1
Marcel de Berg
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways.  (1) The ratio of actual transpiration to maximum evapotran
GEG5224 Ecosystem Ecology Environment Carbon Productivity Decomposition Evapotranspiration Water Soil moisture
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways. 
(1) The ratio of actual transpiration to maximum evapotranspiration (T/ETmax) modifies gross primary productivity (GPP).
(2) Degree of saturation of the soil (Sd) modifies the rate of soil heterotrophic respiration.
(3) Water limitation of GPP (by T/ETmax) and of soil nutrient availability (approximated by Sd) combine with leaf area limitation (approximated by fraction of incident photosynthetically-active radiation that is absorbed) to modify the allocation of net primary productivity to aboveground and belowground parts of the vegetation.

Ecosystem dynamics in turn influence flows of water in to and out of the soil moisture stock. The size of the aboveground biomass stock determines fractional vegetation cover, which modifies interception, soil evaporation and transpiration by plants.

References:
Guswa, A.J., Celia, M.A., Rodriguez-Iturbe, I. (2002) Models of soil moisture dynamics in ecohydrology: a comparative study. Water Resources Research 38, 5-1 - 5-15.

Hartig, F., Minunno, F., and Paul, S. (2019). BayesianTools: General-Purpose MCMC and SMC Samplers and Tools for Bayesian Statistics. R package version 0.1.7. https://CRAN.R-project.org/package=BayesianTools

Clone of Simple Terrestrial Ecosystem Model - Soil Moisture (STEM-SM)
Ha Jo
8 months ago
Insight diagram
Rainwater Water Environment
Group 5 Watershed Project Insight Maker
Darryl Ferra
6 12 months ago
​ This model is used in a world studies extended essay research. The research question is: In what ways would the water desalination method used in Singapore benefit   water-stressed and economically less developed countries, using Palestine as a case study. This model retrieved data on Palestine
Palestine Singapore Desalination Process Water Environment
​ This model is used in a world studies extended essay research. The research question is: In what ways would the water desalination method used in Singapore benefit   water-stressed and economically less developed countries, using Palestine as a case study.
This model retrieved data on Palestine water resources from Authority, Palestinian Water. "Annual status report on water resources, water supply, and wastewater in the occupied State of Palestine 2011." Palestinian Water Authority, Ramallah 13 (2012) 
Data for Singapore desalination process is taken from PUB, Singapore Water Agency, "Singapore Water Story." PUB, Singapore's National Water Agency. N.p., n.d. Web. 25 Feb. 2017.
Data for Palestine population growth was taken from World Bank. World Bank. "West Bank and Gaza Home." The World Bank. N.p., n.d. Web. 25 Feb. 2017.
This model assumes that Palestine population will grow at 2.92% (World Bank, 2015) and average domestic consumption is 90 litres per capita per day(Palestine Water Authority, 2012). This model does not take into account growing demands for industrial and agricultural sector. It also does not show the impact of climate change on Palestine natural water resources.
Model of Palestine water supply and demand in 40 years with input from desalination process
Ideasxiang
6
Develop a daily time step simulation model that consists of a reservoir with a single inflow and single outflow (release) Use units of million m3 and include any necessary parameters (e.g., capacity k) as separate adjustable variables Implement the standard linear operating policy (SLOP).  Assum
Inflow & Outflow Water Reservoir Time-step Model
Develop a daily time step simulation model that consists of a reservoir with a single inflow and single outflow (release)
Use units of million m3 and include any necessary parameters (e.g., capacity k) as separate adjustable variables
Implement the standard linear operating policy (SLOP). 
Assume the reservoir is 500 mcm (k=500). 
Develop yield-reliability results for a target (T) delivery values of 1, 3, 5, and 7 mcm/day.3 
(The mean inflow for the time series is 34.8 m3/s, or 3.0 million m3/day.)

The standard linear operating policy provides a basic rule for reservoir release. 

HW6 North Fork Yuba - Capacity = 1000 mcm
Chandra Vogt
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways.  (1) The ratio of actual transpiration to maximum evapotran
GEG5224 Ecosystem Ecology Environment Carbon Productivity Decomposition Evapotranspiration Water Soil moisture
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways. 
(1) The ratio of actual transpiration to maximum evapotranspiration (T/ETmax) modifies gross primary productivity (GPP).
(2) Degree of saturation of the soil (Sd) modifies the rate of soil heterotrophic respiration.
(3) Water limitation of GPP (by T/ETmax) and of soil nutrient availability (approximated by Sd) combine with leaf area limitation (approximated by fraction of incident photosynthetically-active radiation that is absorbed) to modify the allocation of net primary productivity to aboveground and belowground parts of the vegetation.

Ecosystem dynamics in turn influence flows of water in to and out of the soil moisture stock. The size of the aboveground biomass stock determines fractional vegetation cover, which modifies interception, soil evaporation and transpiration by plants.

References:
Guswa, A.J., Celia, M.A., Rodriguez-Iturbe, I. (2002) Models of soil moisture dynamics in ecohydrology: a comparative study. Water Resources Research 38, 5-1 - 5-15.

Hartig, F., Minunno, F., and Paul, S. (2019). BayesianTools: General-Purpose MCMC and SMC Samplers and Tools for Bayesian Statistics. R package version 0.1.7. https://CRAN.R-project.org/package=BayesianTools

Clone of Simple Terrestrial Ecosystem Model - Soil Moisture (STEM-SM)
Chingun Munkhdash
7 months ago
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Environment Water Rainwater
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Clone of Primitives for Rainwater Harvesting -Tucson ENVS 270 F21
Abby Russell
5 12 months ago
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Phoenix only.
Rainwater Water Environment
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Phoenix only.
Clone of Primitives for Rainwater Harvesting -Phoenix ENVS 270 F21
Maddy Niffenegger
Insight diagram
Security Human Environment Community POLITICAL Personal Economy Water Food
Clone of Clone of Elements of Human Security
Alexandra el khoury
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Pumps Physical Systems Water
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Juan Mateo Succar
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Phoenix only.
Rainwater Water Environment
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Phoenix only.
Clone of Primitives for Rainwater Harvesting -Phoenix ENVS 270 F21
Kyra Floyd
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Environment Water Rainwater
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Clone of Primitives for Rainwater Harvesting -Tucson ENVS 270 F21
eganputman
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Water Physical Systems Pumps
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Eustorgio Alejandro
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Environment Water Rainwater
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Tucson only. Tucson watersheds are Arroyo Chico, Canada Agua, and Lower Canada del Oro.
Clone of Primitives for Rainwater Harvesting -Tucson ENVS 270 F21
Caleb Fetveit
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit. The converter in this file contains precipitation for Phoenix only.
Rainwater Water Environment
Primitives for Watershed modeling project. Click Clone Insight at the top right to make a copy that you can edit.

The converter in this file contains precipitation for Phoenix only.
Clone of Primitives for Rainwater Harvesting -Phoenix ENVS 270 F21
Armando Antonio Jimenez
Insight diagram
Earth Water Cycle
Clone of Water Cycle on Earth
Namis
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Water Physical Systems Pumps
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Roberto Francisco Plasencia Cashat
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Water Physical Systems Pumps
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Luis Ernesto Collazo
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Pumps Water Physical Systems
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
José Eduardo Ramírez Moreno
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Pumps Physical Systems Water
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Fernanda Esther Hernández García
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Physical Systems Water Pumps
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Mariana Enriquez
This is step 5 in making a climate model based on our insights of how trees actively contribute to the cooling capcacity of the Earth.​ In this step we added the reflection of sun energy by Clouds  Present the temperature of the Earth is 288 Kelvin. Without Earth would be 255 Kelvin. So the energ
Cooling Greenhouse GHG Forest Environment Climate Water
This is step 5 in making a climate model based on our insights of how trees actively contribute to the cooling capcacity of the Earth.​

In this step we added the reflection of sun energy by Clouds 

Present the temperature of the Earth is 288 Kelvin. Without Earth would be 255 Kelvin. So the energy balance of the Earth add 33 Kelvin.

We optimize the variable GHG-effect and the optimal number is 0.29625 in this model.


With Our-Green-Spine we have discovered new insights how trees / forest / green structures are part of the managing system of controlling the temperature of our Earth via their cooling capacity by using water and influencing the water cycle. We want to translate our insights in a climate model. People who to join us please send an email to marcel.planb@gmail.com.
Thanks, Marcel de Berg
Model 5 adding Reflection by clouds optimal GHG effect
Marcel de Berg
3
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Pumps Physical Systems Water
Comportamiento de un sistema hidráulico con un aljibe, un tinaco, y consumo aleatorio.
Clone of Sistema de Agua en Casa
Ricardo Luis Perez Torres
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways.  (1) The ratio of actual transpiration to maximum evapotran
GEG5224 Ecosystem Ecology Environment Carbon Productivity Decomposition Evapotranspiration Water Soil moisture
STEM-SM combines a simple ecosystem model (modified version of VSEM; Hartig et al. 2019) with a soil moisture model (Guswa et al. (2002) leaky bucket model). Outputs from the soil moisture model influence ecosystem dynamics in three ways. 
(1) The ratio of actual transpiration to maximum evapotranspiration (T/ETmax) modifies gross primary productivity (GPP).
(2) Degree of saturation of the soil (Sd) modifies the rate of soil heterotrophic respiration.
(3) Water limitation of GPP (by T/ETmax) and of soil nutrient availability (approximated by Sd) combine with leaf area limitation (approximated by fraction of incident photosynthetically-active radiation that is absorbed) to modify the allocation of net primary productivity to aboveground and belowground parts of the vegetation.

Ecosystem dynamics in turn influence flows of water in to and out of the soil moisture stock. The size of the aboveground biomass stock determines fractional vegetation cover, which modifies interception, soil evaporation and transpiration by plants.

References:
Guswa, A.J., Celia, M.A., Rodriguez-Iturbe, I. (2002) Models of soil moisture dynamics in ecohydrology: a comparative study. Water Resources Research 38, 5-1 - 5-15.

Hartig, F., Minunno, F., and Paul, S. (2019). BayesianTools: General-Purpose MCMC and SMC Samplers and Tools for Bayesian Statistics. R package version 0.1.7. https://CRAN.R-project.org/package=BayesianTools

Clone of Simple Terrestrial Ecosystem Model - Soil Moisture (STEM-SM)
Anna Lee
last week