Translations:Betriebsregeltypen/50/en - Versionsgeschichte

Haghani am 30. August 2021 um 10:29 Uhr

2021-08-30T10:29:34Z

← Nächstältere Version		Version vom 30. August 2021, 12:29 Uhr
Zeile 1:		Zeile 1:
	* Dependency:		* Dependency:
	:Rule 7, just as rule 6, is a continuation and generalization of the increase of low water as described in rules 5. Just like a discharge deficit at a cross-section or the ~~reservoir~~ inflow can influence the discharge, any other system state can. In general terms, this means that a discharge from a ~~reservoir~~ is triggered, increased, or reduced due to a certain system state. Basically, it is irrelevant where the system state occurs. All measurable variables that influence the transport and storage of water can be considered as system states, e.g. the filling of other ~~reservoirs~~, discharges, flow regime at a cross-section, a snow depth in the catchment area, current precipitation, or current soil moisture.		:Rule 7, just as rule 6, is a continuation and generalization of the increase of low water as described in rules 5. Just like a discharge deficit at a cross-section or the storage inflow can influence the discharge, any other system state can. In general terms, this means that a discharge from a storage is triggered, increased, or reduced due to a certain system state. Basically, it is irrelevant where the system state occurs. All measurable variables that influence the transport and storage of water can be considered as system states, e.g. the filling of other storages, discharges, flow regime at a cross-section, a snow depth in the catchment area, current precipitation, or current soil moisture.

T.Schnellbach am 31. März 2021 um 08:52 Uhr

2021-03-31T08:52:48Z

← Nächstältere Version		Version vom 31. März 2021, 10:52 Uhr
Zeile 1:		Zeile 1:
	* Dependency:		* Dependency:
	:Rule 7 is a continuation and generalization of the increase of low water as described in ~~rule~~ 5~~. Rule 6 also belongs to this category~~. Just like a discharge deficit at a cross-section or the reservoir inflow can influence the discharge, any other system state can. In general terms, this means that a discharge from a reservoir is triggered, increased, or reduced due to a certain system state. Basically, it is irrelevant where the system state occurs. All measurable variables that influence the transport and storage of water can be considered as system states, e.g. the filling of other reservoirs, discharges, flow regime at a cross-section, a snow depth in the catchment area, current precipitation, or current soil moisture.		:Rule 7, just as rule 6, is a continuation and generalization of the increase of low water as described in rules 5. Just like a discharge deficit at a cross-section or the reservoir inflow can influence the discharge, any other system state can. In general terms, this means that a discharge from a reservoir is triggered, increased, or reduced due to a certain system state. Basically, it is irrelevant where the system state occurs. All measurable variables that influence the transport and storage of water can be considered as system states, e.g. the filling of other reservoirs, discharges, flow regime at a cross-section, a snow depth in the catchment area, current precipitation, or current soil moisture.

T.Schnellbach am 31. März 2021 um 08:51 Uhr

2021-03-31T08:51:42Z

← Nächstältere Version		Version vom 31. März 2021, 10:51 Uhr
Zeile 1:		Zeile 1:
	* ~~Dependence~~:		* Dependency:
	:Rule 7 is a continuation and generalization of the low water ~~elevation~~ as described in rule 5. Rule 6 also ~~falls under~~ this ~~heading~~. Just as a discharge deficit at a ~~watercourse~~ cross-section or the reservoir inflow can influence a discharge, any other system ~~conditions~~ can ~~also influence the possible discharge~~. In general terms, this means that a discharge from a reservoir is triggered, increased or reduced due to a certain system state. Basically it is irrelevant where the system state occurs. ~~In principle, all~~ measurable variables that influence the transport and storage of water can be considered as system states, e.g. ~~fillings~~ of other reservoirs, discharges, ~~runoff~~ at a ~~watercourse~~ cross-section, a snow depth in the catchment area, current precipitation, current soil moisture~~, etc~~.		:Rule 7 is a continuation and generalization of the increase of low water as described in rule 5. Rule 6 also belongs to this category. Just like a discharge deficit at a cross-section or the reservoir inflow can influence the discharge, any other system state can. In general terms, this means that a discharge from a reservoir is triggered, increased, or reduced due to a certain system state. Basically, it is irrelevant where the system state occurs. All measurable variables that influence the transport and storage of water can be considered as system states, e.g. the filling of other reservoirs, discharges, flow regime at a cross-section, a snow depth in the catchment area, current precipitation, or current soil moisture.

Ferrao am 26. November 2020 um 15:01 Uhr

2020-11-26T15:01:08Z

← Nächstältere Version		Version vom 26. November 2020, 17:01 Uhr
Zeile 1:		Zeile 1:
	* Dependence:		* Dependence:
	Rule 7 is a continuation and generalization of the low water elevation as described in rule 5. Rule 6 also falls under this heading. Just as a discharge deficit at a watercourse cross-section or the reservoir inflow can influence a discharge, any other system conditions can also influence the possible discharge. In general terms, this means that a discharge from a reservoir is triggered, increased or reduced due to a certain system state. Basically it is irrelevant where the system state occurs. In principle, all measurable variables that influence the transport and storage of water can be considered as system states, e.g. fillings of other reservoirs, discharges, runoff at a watercourse cross-section, a snow depth in the catchment area, current precipitation, current soil moisture, etc.		:Rule 7 is a continuation and generalization of the low water elevation as described in rule 5. Rule 6 also falls under this heading. Just as a discharge deficit at a watercourse cross-section or the reservoir inflow can influence a discharge, any other system conditions can also influence the possible discharge. In general terms, this means that a discharge from a reservoir is triggered, increased or reduced due to a certain system state. Basically it is irrelevant where the system state occurs. In principle, all measurable variables that influence the transport and storage of water can be considered as system states, e.g. fillings of other reservoirs, discharges, runoff at a watercourse cross-section, a snow depth in the catchment area, current precipitation, current soil moisture, etc.

Ferrao: Die Seite wurde neu angelegt: „* Dependence: Rule 7 is a continuation and generalization of the low water elevation as described in rule 5. Rule 6 also falls under this heading. Just as a di…“

2020-11-26T14:01:43Z

Die Seite wurde neu angelegt: „* Dependence: Rule 7 is a continuation and generalization of the low water elevation as described in rule 5. Rule 6 also falls under this heading. Just as a di…“

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* Dependence:
Rule 7 is a continuation and generalization of the low water elevation as described in rule 5. Rule 6 also falls under this heading. Just as a discharge deficit at a watercourse cross-section or the reservoir inflow can influence a discharge, any other system conditions can also influence the possible discharge. In general terms, this means that a discharge from a reservoir is triggered, increased or reduced due to a certain system state. Basically it is irrelevant where the system state occurs. In principle, all measurable variables that influence the transport and storage of water can be considered as system states, e.g. fillings of other reservoirs, discharges, runoff at a watercourse cross-section, a snow depth in the catchment area, current precipitation, current soil moisture, etc.