What can UFIT® do?
- Non-Invasive Measurements
Blood Pressure
- SYS Systolic Blood Pressure
- DYS Diastolic Blood Pressure
- MAP Mean Arterial Pressure
- APP Arterial Pulse Pressure
Pulse Rate Monitoring
- PRA Pulse Rate Average
- PRV Pulse Rate Variability
- (indicator of heart arrhythmia)
Pulse Time
- STI Systolic Time Index
- DTI Diastolic Time Index
- Future Capability
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White & Red Blood Cell Count
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Electrocardiogram (ECG)
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Body Temperature
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Body Mass Index (BMI)
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Heart Exertion Levels
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Biological Age
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Respiration Rate
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- Confidence Readings
Each Measurement with a Confidence Interval.
If you believe that knowing your patients’ vital signs is important then you probably want your data to be accurate, significant and statistically valid. UFIT® delivers on these key criteria by providing each measurement with a Confidence Interval.
What is a Confidence Interval? A Confidence Interval quantifies the variability of the result.
Why is quantifying the variability of the result significant? It is significant because in measuring blood pressure the object of measurement (blood pressure, etc.) unlike a static object such as a block of stone inherently changes while it is being measured. Therefore measurement variability must be quantified so that the user can appreciate the reliability of the result.
When a typical blood pressure cuff displays a value of 140 mmHg this result could mean (1) 140 ±5 for a range of 135 to 145, or (2) 140 ±35 for a range of 105 to 175. The health and medication implications resulting from these two blood pressure scenarios would clearly be significantly different. Unfortunately a typical blood pressure monitor doesn’t provide any form of confidence interval and therefore cannot be considered a reliable monitor. Its displayed measurements by definition are not reliable measurements. Would you fly on an airplane if you didn’t know its engines were reliable?
The Guide to the Expression of Uncertainty in Measurement:
The Guide to the Expression of Uncertainty in Measurement (GUM) provides general rules for quantifying measurement variability [1]. Measurement variability quantified by the rules of GUM is called measurement uncertainty. "In general, the result of a measurement is only an approximation or estimate of the value of the quantity being measured and thus is complete only when accompanied by a statement of the uncertainty of that estimate" [1, 2].
- ISO/IEC Guide 98:1995. Guide to the expression of uncertainty in measurement (GUM). International Organization for Standardization: Geneva, 1995.
- ISO/IEC Guide 99:2007. International vocabulary of metrology – Basic and general concepts and associated terms (VIM). International Organization for Standardization: Geneva, 2007.
This means that a result given as Systolic = 120 mmHg is not complete; Systolic = 120 ±2 mmHg is a complete result statement; the distinction between "result" and "complete result" is the same as between "sentence" and "complete sentence".
- ISO/IEC Guide 98:1995. Guide to the expression of uncertainty in measurement (GUM). International Organization for Standardization: Geneva, 1995.
- Software
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Graphs the Entire Pulse Wave
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Entire Pulse Wave Can Be Securely Stored, Retrieved and Shared
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Readings are Time Stamped and Tamper Proof
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Readings Integrates with Major Medical and Dental Management Practice Software
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Readings can be Easily and Securely Shared with Others
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Readings Can Be Averaged Over Time
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Easy to Read Trending Pattern Charts
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Automated Reminders
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Automated Reading Alerts
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Readings are Accessible Remotely and at Any Time
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Multiple or Sequential Readings with Preset or Programmable Time Intervals
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Section to Add Notes with Each Reading
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Readings Can be Printed Out
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Readings Can Be Validated
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Print Outs Can Be Customized: Branding & Advertising Opportunities
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Graphical User Interface Displayed Can be Customized: Branding & Advertising Opportunities
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