Abstract: A collaborative content management system (CMS) is disclosed herein for processing electronic signature data in a collaborative environment and performing actions based on the received data. The CMS may receive a selection of a content item to be electronically signed by one or more users. Upon receipt of the selection, the CMS may generate a fillable form and send the fillable form to be electronically filled out signed. When each user fills out and signs the form, the CMS may receive that form data and aggregate the form data with previously received form data. The CMS may determine whether the aggregated form data meets one or more conditions stored within the CMS and perform appropriate actions based on one or more conditions that are met.

Abstract: A collaborative content management system (CMS) is disclosed herein for processing electronic signature data in a collaborative environment and performing actions based on the received data. The CMS may receive a selection of a content item to be electronically signed by one or more users. Upon receipt of the selection, the CMS may generate a fillable form and send the fillable form to be electronically filled out signed. When each user fills out and signs the form, the CMS may receive that form data and aggregate the form data with previously received form data. The CMS may determine whether the aggregated form data meets one or more conditions stored within the CMS and perform appropriate actions based on one or more conditions that are met.

Abstract: A collaborative content management system (CMS) is disclosed herein for processing electronic signature data in a collaborative environment and performing actions based on the received data. The CMS may receive a selection of a content item to be electronically signed by one or more users. Upon receipt of the selection, the CMS may generate a fillable form and send the fillable form to be electronically filled out signed. When each user fills out and signs the form, the CMS may receive that form data and aggregate the form data with previously received form data. The CMS may determine whether the aggregated form data meets one or more conditions stored within the CMS and perform appropriate actions based on one or more conditions that are met.

Abstract: This application describes a flow cell to perform experiments under well-controlled hydrodynamic conditions. The resulting cell enables combining the advantages of in-situ spectroscopic ellipsometry with stagnation point flow conditions. An additional advantage is that the proposed cell features a fixed position of the “inlet conduit” with respect to the substrate, thus facilitating the alignment of multiple substrates. Theoretical calculations were performed by computational fluid dynamics and compared with experimental data (adsorption kinetics) obtained for the adsorption of polyethylene glycol to silica under a variety of experimental conditions. Additionally, a simple methodology to correct experimental data for errors associated with the size of the measured spot and for variations of mass transfer in the vicinity of the stagnation point is herein introduced.

Abstract: This application describes a flow cell to perform experiments under well-controlled hydrodynamic conditions. The resulting cell enables combining the advantages of in-situ spectroscopic ellipsometry with stagnation point flow conditions. An additional advantage is that the proposed cell features a fixed position of the “inlet tube” with respect to the substrate, thus facilitating the alignment of multiple substrates. Theoretical calculations were performed by computational fluid dynamics and compared with experimental data (adsorption kinetics) obtained for the adsorption of polyethylene glycol to silica under a variety of experimental conditions. Additionally, a simple methodology to correct experimental data for errors associated with the size of the measured spot and for variations of mass transfer in the vicinity of the stagnation point is herein introduced.