Tingey v. Radionics

193 F. App'x 747
CourtCourt of Appeals for the Tenth Circuit
DecidedAugust 8, 2006
Docket04-4216
StatusUnpublished
Cited by24 cases

This text of 193 F. App'x 747 (Tingey v. Radionics) is published on Counsel Stack Legal Research, covering Court of Appeals for the Tenth Circuit primary law. Counsel Stack provides free access to over 12 million legal documents including statutes, case law, regulations, and constitutions.

Bluebook
Tingey v. Radionics, 193 F. App'x 747 (10th Cir. 2006).

Opinion

ORDER AND JUDGMENT *

PAUL KELLY, JR., Circuit Judge.

After examining the briefs and appellate record, this panel has determined unanimously that oral argument would not materially assist the determination of this appeal. See Fed. R.App. P. 34(a)(2); 10th Cir. R. 34.1(G). The case is therefore ordered submitted without oral argument.

This is a products liability action alleging that plaintiff-appellant, Wendie H. Tingey, suffered injury from a defective product manufactured by defendant Radionics. Ms. Tingey appeals from the district court’s order striking the affidavit of her expert witness; striking the second deposition of her physician; denying her motion for summary judgment; and granting Radionics’ motion for summary judgment. We affirm in part, reverse in part, and remand for further proceedings.

FACTS

1. Ms. Tingey’s back problems

Ms. Tingey suffered from long-standing back pain, exacerbated by a previous surgical fusion of her lower vertebrae. She sought treatment from an anesthesiologist, Dr. Richard Rosenthal. After treatment with pain medication and anesthetic nerve blocks proved unsatisfactory, Ms. Tingey agreed to undergo a “nerve ablation procedure” designed to isolate and destroy the nerves causing her pain.

2. The radiofrequency device

This procedure was performed by Dr. Rosenthal, accompanied by a nurse, using a radiofrequency lesion generator, model RFG-3C + (the “device” or “radiofrequency device”) manufactured by Radionics. Dr. Rosenthal was well-experienced in use of the radiofrequency device, as was the nurse who assisted him. The device is designed to therapeutically destroy painful nerve tissue by creating lesions in the tissue.

The Radionics radiofrequency device used by Dr. Rosenthal on Ms. Tingey required him to insert a hollow needle into her back. An electrode was then inserted into the needle to produce the radiofrequency waves. The device was designed to operate in two basic modes, lesioning and stimulation mode.

3. Lesioning vs. stimulation mode

In its high-voltage, lesioning mode (also known as the “pulse mode”), the device *751 destroys nerve tissue. In order to locate the precise nerve tissue to be destroyed, however, the device also has a lower-voltage, nerve stimulation mode (sometimes called “stim mode”). When operating in the stim mode, the device delivers a low-voltage current to nerve tissue so that the patient can feel the tingle it produces in the nerves and advise the physician when he has positioned the needle adjacent to the painful nerve tissue to be lesioned. The usual procedure is to use the stim mode to locate the tissue to be lesioned, and then to switch over to pulse mode to actually destroy nerve tissue.

a. High and low frequency stimulation

The stim mode, in turn, requires the use of two settings, which are controlled by a rate-select button. The higher-frequency setting (50 Hz) is used to stimulate the sensory part of the nerve. A lower-frequency setting (2 Hz) is used to stimulate the motor portion of the nerve.

b. Voltage adjustments

There are also voltage adjustments to be made within the stim mode. These adjustments allow the operator to position the needle as close as possible to the affected nerve. The closer the needle is to the affected tissue, the less voltage is required to detect the nerve. The physician can tell that the needle is positioned correctly when only a small amount of voltage is needed to produce a tingling sensation on the affected nerve. If a higher voltage is required to produce sensation, he may need to reposition the needle closer to the nerve before beginning to lesion it.

The voltage is controlled by two switches located on the front panel of the device. One switch is a rheostat or potentiometer similar to a dimmer switch for a light fixture, which allows the operator to increase the output voltage in slow increments. The other is a toggle switch that immediately increases the voltage ten-fold, from a range of zero to one volt to a range of one to ten volts.

High-frequency sensory stimulation (50 Hz) is performed uniquely at a low voltage (zero to one volt maximum), while low-frequency motor stimulation (2 Hz) is done only at a higher voltage (one to ten volts). When the operator wants to switch from stimulating the sensory portion of a nerve to stimulating the motor portion of the nerve, he must activate two switches: the rate select switch (stepping down the frequency from 50 Hz to 2 Hz), and the voltage toggle switch (stepping up from the zero to one volt mode to the one to ten volt mode). The same is true in reverse, when switching from motor to sensory mode. There, the operator would step up the frequency from 2 Hz to 50 Hz, and step down the voltage range to zero to one volt.

c. Potential dangers and safety mechanisms provided

The frequency switch, but not the voltage-toggle switch, has a fail-safe mechanism. If the operator attempts to switch between frequencies and the voltage control knob has not been set to zero, the machine shuts itself down. The voltage toggle switch, however, contains no such fail-safe device.

If the voltage is not set at zero when the voltage toggle switch is flipped, it allows for a sudden, ten-fold spike in electrical current into the patient, without automatic shutoff. The operator can avoid this sudden, ten-fold increase in voltage in one of two ways. First, he can reset the voltage control to zero before switching the toggle switch. In fact, operators are trained to reset to zero voltage before making changes to the device’s output. Second, if *752 he forgets to do that, but if he activates the switches in the order frequency first, voltage second, the fail-safe mechanism associated with the rate select switch will shut the device down. In fact, any attempt to change frequency while the voltage knob is not at zero results in the device immediately shutting down.

d. Ms. Tingey’s operation

In Ms. Tingey’s case, she alleges that the nurse operating the device made two crucial errors, when the physician told her to switch from sensory to motor stimulation. First, she did not turn the voltage control to zero. Second, she immediately switched the toggle switch, to increase the voltage ten-fold, rather than the rate-select switch, to adjust the frequency. Because of this, the fail-safe mechanism that would have engaged had she activated the rate-select switch with a non-zero current did not prevent an instant ten-fold increase in the amount of electricity flowing through the needle.

As a result, Ms. Tingey received an electrical shock of approximately seven volts, at a frequency of 50 Hz. She jumped and screamed out in pain. Later that day, she found that she was unable to urinate and defecate normally. Her fecal incontinence resolved soon thereafter, but she was left with an apparently permanent form of urinary incontinence known as “neurogenic bladder.” This means that she cannot sense when her bladder is full, and that her bladder does not empty properly.

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193 F. App'x 747, Counsel Stack Legal Research, https://law.counselstack.com/opinion/tingey-v-radionics-ca10-2006.