bp(HBP:Proteostasis)
Furthermore, the activity of the PN can be altered permanently or transiently by development and aging, alterations in physiology, or exposure to environmental stress (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
Furthermore, the activity of the PN can be altered permanently or transiently by development and aging, alterations in physiology, or exposure to environmental stress (1). PubMed:25784053
Furthermore, the activity of the PN can be altered permanently or transiently by development and aging, alterations in physiology, or exposure to environmental stress (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
HSP60 is essential for maturation and maintenance of the mitochondrial proteome and is therefore intimately linked to energy production. PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
However, the mechanisms that link HSF1 induction to improved proteostasis are not yet clear PubMed:21882945
Hsp90 is critical to maintaining proteostasis (Brehme et al., 2014) and accounts for up to 6% of all protein within the cell during times of stress (Picard, 2002; Prodromou, 2016). PubMed:29311797
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Therapeutic approaches to overcome proteostasis deficiencies have largely focused on the activation of HSF1, the heat shock transcription factor responsible for simultaneous upregulation of the expression of multiple molecular chaperones during stress (Calamini et al., 2011; Pierce et al., 2013). PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
The PN is regulated by interconnected pathways that respond to specific forms of cellular stress, including the cytosolic heat shock response (HSR) (191), the unfolded protein response (UPR) in the endoplas- mic reticulum (192), and the mitochondrial UPR (193). PubMed:23746257
Indeed, studies using model organisms demonstrate that a gradual decline in cellular proteostasis capacity occurs with aging (10). PubMed:23746257
As shown in Caenorhabditis elegans, Drosophila, and the mouse, the ability of cells and tissues to maintain proteostasis declines during aging, concurrent with the capacity to respond to conformational stresses (214–220). PubMed:23746257
The PN is regulated by interconnected pathways that respond to specific forms of cellular stress, including the cytosolic heat shock response (HSR) (191), the unfolded protein response (UPR) in the endoplas- mic reticulum (192), and the mitochondrial UPR (193). PubMed:23746257
Moreover, Nrf2 contributes to cellular proteostasis by regulating the expression of molecular chaperones [89], as well as of additional players of proteome stability and maintenance, namely the proteasome subunits [90–92]. PubMed:24563850
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
Proteome fidelity is maintained by the protein homeostasis (proteostasis) network (PN), a multi-compartmental system that coordinatesprotein synthesis, folding, disaggregation, and degradation (1). PubMed:25784053
As such, it is feasible that any reduction in the protein degradation capacity of a cell could contribute to proteostasis collapse and promote aging. PubMed:25784053
All proteins, including tau, are subject to extensive regulation by the cellular quality control pathways, which carefully control the balance between protein expression and turnover to maintain healthy protein homeostasis (or proteostasis) PubMed:21882945
All proteins, including tau, are subject to extensive regulation by the cellular quality control pathways, which carefully control the balance between protein expression and turnover to maintain healthy protein homeostasis (or proteostasis) PubMed:21882945
Hsp90 is critical to maintaining proteostasis (Brehme et al., 2014) and accounts for up to 6% of all protein within the cell during times of stress (Picard, 2002; Prodromou, 2016). PubMed:29311797
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Many studies based on model systems support a role for candidates from each of the major chaperome families; HSP100, HSP90, HSP70, HSP60, HSP40, sHSPs, and TPR-domain-containing proteins in proteostasis. PubMed:27491084
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
Additionally, PN regulation is integrated with pathways involved in inflam- mation, response to oxidative stress, caloric restriction/starvation, and longevity. PubMed:23746257
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If you find BEL Commons useful in your work, please consider citing: Hoyt, C. T., Domingo-Fernández, D., & Hofmann-Apitius, M. (2018). BEL Commons: an environment for exploration and analysis of networks encoded in Biological Expression Language. Database, 2018(3), 1–11.