Abstract: A handheld device measures all vital signs and some hemodynamic parameters from the human body and transmits measured information wirelessly to a web-based system, where the information can be analyzed by a clinician to help diagnose a patient. The system utilizes our discovery that bio-impedance signals used to determine vital signs and hemodynamic parameters can be measured over a conduction pathway extending from the patient's wrist to a location on their thoracic cavity, e.g. their chest or navel. The device's form factor can include re-usable electrode materials to reduce costs. Measurements made by the handheld device, which use the belly button as a ‘fiducial’ marker, facilitate consistent, daily measurements, thereby reducing positioning errors that reduce accuracy of standard impedance measurements. In this and other ways, the handheld device provides an effective tool for characterizing patients with chronic diseases, such as heart failure, renal disease, and hypertension.

Abstract: A non-mechanical outdoor urn burial system that includes a one-piece rigid weather resistant tubular vault directly embedded within an outdoor ground surface with a length of the vault extending perpendicular to the outdoor ground surface, the vault having an open top, a closed end, and an elongated chamber having a dimension configured to support one set of urns completely below the ground surface in a stacked condition wherein access to the chamber is through the open top, a weather resistant cover disposed to close the open top and seal the chamber from environmental conditions, and at least two urns each having a top end and a bottom end and disposed top end-to-bottom end in a stacking yet independently displaceable condition in the chamber with each urn including a slot located proximal the top end to facilitate the independent transfer of the urn within and out from the vault.

Abstract: Systems for dynamic profile control are provided. A system may receive first check data that may include a number of checks written over a predetermined time period for an account. The first check data may be analyzed to determine the number of checks written in a predetermined time period and the number may be compared to one or more thresholds. Based on the comparison, a first tier level may be identified for the account. A profile record may be generated including a check profile that may include one or more parameters based on the identified first tier level. The system may then build the profile by adding checks to the profile upon determining that the checks meet predefined criteria. After a predetermined time period has expired, the system may process additional data to determine whether the identified tier level and associated parameters should be modified.

Abstract: Systems for dynamic profile control are provided. A system may receive first check data that may include a number of checks written over a predetermined time period for an account, or the like. The first check data may be analyzed to determine a number of checks written in a predetermined time period and the volume or number may be compared to one or more thresholds or ranges. Based on the comparison, a first tier level may be identified for the account or the like. A profile record may be generated including a check profile that may include one or more parameters determined based on the identified first tier level. The system may then build the profile by adding checks or other documents to the profile upon determining that the checks or other documents meet predefined criteria. After a predetermined time period has expired, the system may process additional data to determine whether the identified tier level and associated parameters should be modified.

Abstract: Systems for dynamic profile control are provided. A system may receive first check data that may include a number of checks written over a predetermined time period for an account, or the like. The first check data may be analyzed to determine a number of checks written in a predetermined time period and the volume or number may be compared to one or more thresholds or ranges. Based on the comparison, a first tier level may be identified for the account or the like. A profile record may be generated including a check profile that may include one or more parameters determined based on the identified first tier level. The system may then build the profile by adding checks or other documents to the profile upon determining that the checks or other documents meet predefined criteria. After a predetermined time period has expired, the system may process additional data to determine whether the identified tier level and associated parameters should be modified.

Abstract: Systems for dynamic profile control are provided. A system may receive first check data that may include a number of checks written over a predetermined time period for an account, or the like. The first check data may be analyzed to determine a number of checks written in a predetermined time period and the volume or number may be compared to one or more thresholds or ranges. Based on the comparison, a first tier level may be identified for the account or the like. A profile record may be generated including a check profile that may include one or more parameters determined based on the identified first tier level. The system may then build the profile by adding checks or other documents to the profile upon determining that the checks or other documents meet predefined criteria. After a predetermined time period has expired, the system may process additional data to determine whether the identified tier level and associated parameters should be modified.

Abstract: The present invention provides an improved sleeping bag system. In some embodiments, the sleeping bag system comprises a sleeping bag and a supplement sheet layering over the top exterior side of the sleeping bag, wherein the supplemental sheet is attached to the sleeping bag at the foot end via an attachment means.