Claims Analysis
Total Claims: 10
Claim 1
Independent Claim
192 words
A method of making a disposable clinical thermocouple probe comprised of: forming a large plastic comb probe structure, forming a large mask assembly, disposing the mask assembly around the comb probe structure, positioning the probe/mask assembly in a vacuum deposition process machine with its orientation in relation to a first metal vapor source defined by the line of sight nature of the vacuum deposition process, energizing a first metal vapor source and despositing a first thin strip of metal with a thickness from .0001 mils to about 1 mil, energizing a second metal vapor source which is dissimilar to the first metal vapor source and whose orientation in relation to the probe/mask assembly is defined by the line of sight nature of the vacuum deposition process, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness from 0.0001 mils to about 1 mil, removing the mask assembly from the comb probe structure, fracturing the probes from the backbone of the comb probe structure at their individual parting lines into multiple sterile containers, sealing the sterile containers.
Claim 2
Independent Claim
192 words
A method of making a disposable clinical thermocouple probe comprised of: forming a large plastic comb probe structure, forming a large mask assembly, disposing the mask assembly around the comb probe structure, positioning the probe/mask assembly in a vacuum deposition process machine with its orientation in relation to a first metal vapor source defined by the line of sight nature of the vacuum deposition process, energizing a first metal vapor source and despositing a first thin strip of metal with a thickness from .0001 mils to about 1 mil, energizing a second metal vapor source which is dissimilar to the first metal vapor source and whose orientation in relation to the probe/mask assembly is defined by the line of sight nature of the vacuum deposition process, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness from 0.0001 mils to about 1 mil, removing the mask assembly from the comb probe structure, fracturing the probes from the backbone of the comb probe structure at their individual parting lines into multiple sterile containers, sealing the sterile containers.
Claim 3
Dependent Claim
44 words
The method of claim 1 and including: rotating the probe/mask assembly after depositing the first thin metal strip to a new orientation in relation to the second dissimilar metal vapor source and defined by the line of sight nature of the vacuum deposition process.
Claim 4
Independent Claim
169 words
A method of making a disposable thermocouple probe comprised of: forming a number of plastic probe substrates, disposing a mask assembly around the probe substrates, positioning the probe/mask assembly in a vacuum deposition process machine with its orientation in relation to a first metal vapor source defined by the line of sight nature of the vacuum deposition process, energizing a first metal vapor source and depositing a first thin strip of metal with a thickness from 0.0001 mils to about 1 mil, energizing a second metal vapor source which is dissimilar to the first metal vapor source and whose orientation in relation to the probe/mask assembly is defined by the line of sight nature of the vacuum deposition process, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness from 0.0001 mils to about 1 mil, removing the mask assembly from the probes, placing the probes in sterile containers, sealing the sterile containers.
Claim 5
Independent Claim
169 words
A method of making a disposable thermocouple probe comprised of: forming a number of plastic probe substrates, disposing a mask assembly around the probe substrates, positioning the probe/mask assembly in a vacuum deposition process machine with its orientation in relation to a first metal vapor source defined by the line of sight nature of the vacuum deposition process, energizing a first metal vapor source and depositing a first thin strip of metal with a thickness from 0.0001 mils to about 1 mil, energizing a second metal vapor source which is dissimilar to the first metal vapor source and whose orientation in relation to the probe/mask assembly is defined by the line of sight nature of the vacuum deposition process, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness from 0.0001 mils to about 1 mil, removing the mask assembly from the probes, placing the probes in sterile containers, sealing the sterile containers.
Claim 6
Dependent Claim
44 words
The method of claim 3 and including: rotating the probe/mask assembly after depositing the first thin metal strip to a new orientation in relation to the second dissimilar metal vapor source and defined by the line of sight nature of the vacuum deposition process.
Claim 7
Dependent Claim
112 words
The method of claim 1 and including: energizing a first metal vapor source and depositing a first thin strip of metal with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probe nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probes nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion.
Claim 8
Dependent Claim
112 words
The method of claim 2 and including: energizing a first metal vapor source and depositing a first thin strip of metal with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probe nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probes nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion.
Claim 9
Dependent Claim
112 words
The method of claim 3 and including: energizing a first metal vapor source and depositing a first thin strip of metal with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probe nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probes nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion.
Claim 10
Dependent Claim
112 words
The method of claim 4 and including: energizing a first metal vapor source and depositing a first thin strip of metal with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probe nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion, depositing a second thin strip of dissimilar metal overlapping the first thin strip of metal at the nose of the cylindrical substrate and with a thickness graduated from about 0.0001 mils to about 0.1 mil at the probes nose to a thickness of about 10 times greater than the nose thickness at the probes rear mounting portion.