Progetto di ricerca "Contarine" per la prevenzione del rischio da contaminazione delle fonti idropotabili

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

[summary] => [format] => 2 [safe_value] =>

Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza.

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

[summary] => [format] => 2 [safe_value] =>

Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

[summary] => [format] => 2 [safe_value] =>

Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

[summary] => [format] => 2 [safe_value] =>

Nessuna criticità nell’acqua che beviamo, come emerge da nuovi test e strumenti di prevenzione. Questo è, in estrema sintesi, il risultato principale e più rilevante emerso dal progetto “Contarine”, nato all'interno dei Piani di Sicurezza dell'Acqua (PSA), con Università di Padova al fianco di ETRA Spa e Acque del Chiampo Spa con l'obiettivo di sviluppare strategie di prevenzione per anticipare le emergenze derivanti dalla contaminazione del ciclo idrico, piuttosto che lavorare in situazioni di emergenza. La collaborazione tra università, aziende e istituzioni è stata fondamentale per acquisire e condividere conoscenze e strategie.

“Nell’ambito del progetto - spiega la Sara Bogialli, professoressa del Dipartimento di Scienze Chimiche dell’Università di Padova e coordinatrice scientifica del progetto - ci siamo concentrati sullo sviluppo di strategie analitiche per la ricerca di contaminanti organici non-target di potenziale interesse sanitario nelle fonti idropotabili, ovvero quelle sostanze che non sono ancora inserite nei controlli ordinari, ma su cui la ricerca scientifica sta investigando da tempo per costruire un percorso legislativo. Questo progetto deriva dallo sforzo di valutare la possibilità di costruire protocolli di analisi che possano intercettare l’esigenza di sapere se l’acqua che beviamo è sicura. L’obiettivo quindi è stato di sviluppare metodi analitici in grado di fare uno screening quanto più possibile ad ampio spettro delle sostanze presenti in un campione di acqua, per poter fornire al gestore una conoscenza più approfondita della filiera idrica, anche in relazione a composti chimici non noti a priori. Ma anche se potessimo virtualmente identificare tutti i composti chimici, ci mancherebbe comunque un’altra importante informazione: tutti questi composti incogniti, che di per sé non costituiscono un rischio rilevante, insieme che effetti hanno?”

Risultati ottenuti
Sono stati analizzati campioni di acqua provenienti da diverse fonti del territorio veneto: 20 è il numero di siti di campionamento tra 8 sorgenti montane e pedemontane, e 12 pozzi su acquifero a diverse profondità e vulnerabilità, considerando quattro stagionalità per ogni fonte tra il 2022 e 2023. Per ognuno dei campioni sono state svolte due diverse procedure di analisi per un totale di 400 campioni analizzati per un totale di 42 milioni di mq di acqua erogata annua. L'uso della spettrometria di massa ad alta risoluzione ha permesso di ottenere preziose informazioni sulla presenza di sostanze organiche nei campioni analizzati.

Roberta Pedrazzani dell'Università degli Studi di Brescia ha presentato i risultati del Monitoraggio Basato sugli Effetti (EBM), che valuta l'attività biologica indotta dalle sostanze chimiche, integrando le analisi chimiche tradizionali con metodi biologici in vitro e in vivo. Non sono emerse situazioni di criticità, ovvero non ci sono evidenze della presenza di contaminanti ai livelli dei valori di allerta per la salute (per le sostanze non normate si intende il limite proposto dalla organizzazione Mondiale della Sanità di 0,1 μg/L, abbassato a 0,01 μg/L per le sostanze cancerogene con meccanismo genotossico).

I risultati dello screening richiedono invece alcune riflessioni importanti, di interesse comune, sulla diffusione di alcune sostanze di origine antropica, per lo più legate all’uso generale da parte della popolazione, che possono raggiungere e contaminare porzioni molto ampie di territorio. Queste nuove informazioni su sostanze emergenti saranno integrate dai gestori all’interno delle analisi del rischio nell’ambito del PSA.

Non possiamo ancora parlare di soluzione definitiva del problema sulla conoscenza completa della qualità dell’acqua, ma oggi abbiamo un’arma in più.

«Siamo orgogliosi di aver preso parte a un progetto scientifico innovativo e originale a tutela della salute dell’uomo e dell’ambiente e che ci auguriamo possa diventare un modello non solo nei nostri ambiti territoriali – spiegano i presidenti di ETRA Spa, Flavio Frasson e di Acque del Chiampo Spa, Renzo Marcigaglia –. Questo progetto è stato per noi molto importante: ci ha permesso di aumentare la conoscenza dello stato di qualità delle nostre fonti e ci ha dato informazioni importanti per l’aggiornamento del PSA e del nostro piano di monitoraggio analitico. Crediamo molto nel ruolo della ricerca e nella condivisione di informazioni e dati tra i soggetti che, in diversi ambiti di competenza, operano monitoraggi a protezione del territorio e della salute».

 

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Inaugurating the UniZeb Zero Energy Living Lab

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

[summary] => [format] => 2 [safe_value] =>

Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

[summary] => [format] => 2 [safe_value] =>

Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

[summary] => [format] => 2 [safe_value] =>

Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

[summary] => [format] => 2 [safe_value] =>

Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

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Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

[summary] => [format] => 2 [safe_value] =>

Three UniPd students will live in the 80 square meter living lab, found in the ZEB building inaugurated on 30 May at via Basilicata 10, in the Camin area of Padua.

As the first University of Padua living lab run as a Zero Energy Building – ZEB, the wooden structure acts as a cutting-edge prototype in which researchers and companies will be able to test innovative technological solutions in construction. A peculiar aspect of the project includes monitoring the performance of various technologies adopted, thanks to the possibility of hosting team members inside the building. Built in 2015, the student-driven initiative welcomed the support of engineering professors from the University of Padua, as leading companies in different fields followed its logical bottom-up design.

With the University of Padua Industrial Engineering, Civil, Construction and Environmental, Information, Historical, Geographical and Antiquity Sciences departments involved, the ZEB saw 15 educators, and 30 students actively involved (over 250 who have participated in the project since 2015), with the participation of students from the Padua Construction School, three years of construction, 5 working groups (Electrical/home automation, Thermomechanical, Sensors/measurements, Architectural/structural, Strategy), over 40 companies and various local authorities (Municipality of Padua, ANCE, SPISAL) the operational protagonists of the project.

The permanent, multidisciplinary, and sustainable UniZEB laboratory shared between the University of Padua, the Construction School of Padua, and other local bodies (Municipality of Padua, ANCE, SPISAL), is supported by over 40 companies. As an environment of innovation and research in construction, the lab proposes itself as a hub between academia and entrepreneurship for the training of students to learn by doing and develop the soft skills of the participants thanks to the knowledge and skills of colleagues.

The primary objectives of this living lab concern the reduction of energy needs using renewable energy and the reduction of CO2 emissions.

unizeb

Scientific Director Prof Michele De Carli and Project Manager Prof Milica Mitrovic explain, 'UniZEB was built by students for students. The potential of its ecosystem lies in the environment to experiment, by making mistakes and learning. We have been part of it, leading the community as scientific managers or project managers. The three years of construction made it possible to construct the laboratory. However, the prototype of the building did not come to fruition. Here we will be able to carry out research, teach university students, and train professionals. Under the sight of engineers and architects of Padua involved, the building is equipped with the most advanced energy-saving technologies as an example of so-called green buildings. It features various architectural and plant technologies and is equipped with advanced home automation techniques. The pilot building offers a real living lab, whose originality relies on the performance of the building in real operating conditions. It is one of the first in Europe and in the world, we will become a pilot project within an international network that is about to start, and which will be discussed in Stockholm at the beginning of June together with other prestigious European research centers. UniZEB not only offers the chance to conduct research and teach but also takes the form of a third mission thanks to the involvement of experts from our territory. We have established a collaborative relationship with over 40 leading companies in the construction and systems sector. It is a building that produces more than it consumes, it is a Plus Energy House, with a digital twin under construction.

The pilot building is an 80 square meter house in which 3 students will live, creating a real living lab. In this way, the companies involved can experiment and validate their products in real operating conditions. At the same time, the University is developing a digital model of the building (a so-called Digital Twin) which allows the data analyzed on-site to be compared with those obtained in the simulation software, adapting it to user behavior'.

The building will be inhabited from spring 2025 to calibrate the instruments and the data collection platform. Selections will open shortly to choose the first 3 students who will be hosted. The project is very broad and concerns all the issues of the built environment: architecture, structures, materials, systems, control and home automation, comfort and quality of the indoor environment, and user behavior.

From an architectural point of view, the plan of the house is compact and divided into three main areas: living area (living room and kitchen), service area (technical room, data room, bathroom), and sleeping area (single bedroom, double bedroom). Furthermore, the three areas revolve around a central space of outdoor conviviality: the patio. The construction system is in Cross-Laminated Timber (CLT) and the external covering is in prefabricated rigid polyurethane foam panels.

The house is equipped with heating, ventilation, and air conditioning (HVAC) systems aimed at producing more energy than the building consumes: radiant ceiling panels, a geothermal heat pump, photovoltaic panels, home automation system for intelligent control of the house. There is also specific treatment of rainwater and wastewater through the provision of a rainwater storage system and a phytoremediation system for wastewater treatment.

The peculiarity of this laboratory consists of the installation of different technological solutions in the same boundary and operational conditions to have a homogeneous comparison of the data, such as different types of facades and three different types of roofs.

One of the main objectives of the project is to monitor the performance of the pilot building to test the technological solutions in real operating conditions, both individually and integrated into a real, interconnected system. To this end, a very dense system of measurement instruments has been installed which will allow the behavior of the building to be characterized in detail, with an advanced data acquisition system.

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2024S33 - Comunicazione calendario e sedi prove d'esame

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I DIRITTI DELLE DONNE TRA STORIA, CULTURA E ATTUALITÀ. L’attrice veneta Francesca Cavallin racconta la “pioniera” dell’arte italiana Palma Bucarelli giovedì 6 giugno durante il convegno a Palazzo Bo

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PROGETTO DI RICERCA “CONTARINE” . Università di Padova, ETRA Spa e Acque del Chiampo Spa per la valutazione dei nuovi contaminanti nella filiera idropotabile

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2024N32 - Esito procedura di mobilità obbligatoria ex art. 34-bis del D.Lgs. 165/2001 s.m.i. (pubblicato all'Albo Ufficiale di Ateneo in data 04/06/2024)

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Even ecosystems have a limit!

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

[summary] => [format] => 2 [safe_value] =>

How long can an ecosystem endure before witnessing an irreversible change? What can be done to prevent or mitigate the effects of human activities, and will it work?

The high and synergistic impact of human pressures can lead ecosystems to undergo drastic, unexpected, and often irreversible changes. Ecological resilience is the capability of an ecosystem to maintain the same structure and function and avoid crossing catastrophic tipping points (i.e. undergoing irreversible regime shifts). To combat global climate change it is therefore necessary to promote and quantify the resilience of ecosystems in a to preserve the important benefits they provide us, by understanding and anticipating changes to better manage natural resources.

The study entitled Resilience assessment in complex natural systems (Camilla Sguotti, Paraskevas Vasilakopoulos, Evangelos Tzanatos and Romain Frelat) was published in the Proceedings of the Royal Society under first author Camilla Sguotti, a researcher in the Department of Biology of the University of Padua. The work saw collaboration with the Joint Research Center of the European Union, the University of Patras (Greece), and the International Livestock Research Institute (Kenya) by proposing the CUSPRA approach as a new statistical method for estimating the resilience of ecosystems to anticipate possible regime changes. The model was developed by extending the stochastic cusp model, as proposed by Thom in the 1970s under the mathematical-statistical model based on the catastrophe theory. The CUSPRA approach can identify the presence of a regime shift due to two synergistic pressures and determine how far the system is from the change. Through this model, it will therefore be possible to quantify the resilience of an ecosystem by calculating it as the distance from an irreversible change.

Regime shifts are increasingly frequent and are occurring in many natural systems: desertification, transition of complex marine ecosystems such as coral reefs, and melting of ice are just some examples. The Global Tipping Point Report, to which I contributed, published as part of COP 28, showed that 25 systems in the biosphere have already undergone these dynamics – states Camilla Sguotti, first author of the study –. Some statistical methods for estimating resilience and therefore anticipating possible regime changes exist, but they are difficult to apply to the time series of real ecosystems which are often short and highly variable. This is why we developed the CUSPRA approach, which estimates the resilience of ecosystems to external pressures.

This new Cusp Resilience Assessment (CUSPRA) has three characteristics:

1.         it provides estimates on how likely a system is to cross a tipping point (in the form of a cusp bifurcation) characterized by hysteresis
2.         it assesses resilience about multiple external drivers and
3.         it produces straightforward results for ecosystem-based management

The study demonstrates the application of the method to different marine systems such as the cod population in the Barents Sea or the fish community of the North Sea and the Mediterranean Sea.

CUSPRA represents a significant step forward in estimating the resilience of natural systems at a statistical level, which is fundamental to supporting the sustainable management of environmental resources.

 

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2023RTT03 Allegato 2 - DR approvazione atti

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