Question 1

Where was the SIS electromedical technology developed?

sismanufacturing · Accepted Answer

Please read ABOUT >

Question 2

How does the SIS electromedical equipment work for infection treatments?

SIS Manufacturing · Accepted Answer

Please read HOW IT WORKS >

Question 3

In what infection instances can the SIS electromedical equipment be used?

sismanufacturing · Accepted Answer

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Question 4

How long does it take to change an infection with the SIS electromedical technology and equipment?

sismanufacturing · Accepted Answer

Each infection and treatment course will be unique.

Question 5

Can the SIS electromedical equipment be used for the treatment of yeast and fungal infections?

sismanufacturing · Accepted Answer

Yes, it is possible that the Output Current of the direct current (DC) SIS electromedical equipment can be programmed for the treatment of yeast and fungal infections.

Question 6

Can the SIS electromedical equipment be used for the treatment of parasites?

sismanufacturing · Accepted Answer

No. The SIS electromedical equipment and technology are not appropriate for the treatment of parasite infections.

Question 7

Does the SIS electromedical technology have the side effects of antibiotics & antiviral drugs in infection treatments?

sismanufacturing · Accepted Answer

No. None of the side effects known to be caused by antibiotics and antiviral drugs have ever been reported.

Additionally, none of the side effects of antibiotics were reported by the electromedicine pioneer, American orthopedic surgeon Robert O Becker (1923-2008), nor by his research associates during their many hospital applications of silver-nylon cloth electrode iontophoresis or low intensity direct current (LIDC) treatments of infections and for tissue healing.

Please read HOW IT WORKS >

Question 8

Can the SIS electromedical equipment be used to treat cancer?

sismanufacturing · Accepted Answer

We do not give medical advice. Here is our general reply to this question for informational purposes only:

A 'neoplasm' is the medical term for what is commonly called a 'malignancy' or a cancerous growth. Neoplasms are occurrences that form over time as a result of many very complex and simultaneous processes.

The SIS electromedical equipment is not being developed nor claimed to be effective when applied alone in the treatment of neoplasms. We explicitly disclaim that the SIS electromedical equipment can be applied alone to treat neoplasms or cancer disease.

Many neoplasms are known to be caused by infections, in addition to many other simultaneous co-factors; these include but are not limited to the more well known neoplasms that can develop in the liver, stomach and in the cervix of females. There is some research evidence that neoplasms in other organs of the body might also be co-factor caused by infections. In so far as neoplasms have infectious agent co-factor causes, then the SIS electromedical equipment could be applied to treat these infections. However, as explained above, most neoplasms have multiple, simultaneous co-factor causes. The SIS alternating current (AC) electromedical technology can also have cellular normalizing and apoptosis effects.

Question 9

Is the SIS electromedical device technology for infection treatments like zappers or bioresonance devices?

sismanufacturing · Accepted Answer

No. Zappers, Rife machines, and bioresonance devices are all electromagnetic frequency generating devices.

The SIS electromedical device technology for infection treatments utilizes low intensity (amperage) direct current (DC); it does not have an Output Current or Output Voltage frequency, as it is DC device technology.

The SIS electromedical technology for infection treatments has no functional or therapeutic similarity to any frequency generating device.

Please read HOW IT WORKS >

Question 10

I have a colloidal silver generator, does the SIS electromedical technology do the same thing?

sismanufacturing · Accepted Answer

No, they are entirely different. Please continue to the link below to read about the SIS electromedical technology for infection treatments, or first read the information below.

HOW IT WORKS >

More information:

Delivery of ingested silver ions inside the body

'Colloidal silver' (ionic silver solution), though certainly of use for surface infections, has limitations for the treatment of internal infections. The human body is often imagined as something like a bathtub of water: if you drop a substance into it, it will homogeneously spread out and automatically go everywhere. The body has 'compartments' and 'barriers', at every order of anatomical scale, down to the sub-cellular level. Silver ions, as with molecules of any medication, do not automatically reach a target area of infection.

Cellular binding sites and internal anatomical pathways

For ingested colloidal silver solution or spray, there are millions or billions of molecular binding sites available for the (+)positively charged silver (cat)ions, starting high up in the gastrointestinal (GI) tract, before they can reach an infection. Internal pathways are very complex and long. For illustration, the chances of getting a therapeutic dose of silver ions to a kidney infection might be very small. The silver ions must get through the stomach, where they can bind to the stomach’s hydrochloric acid and be used up, then go through at least part of GI tract, and eventually find their way to the renal (kidney supplying) arteries and into the inner compartments of the infected kidney(s). If they are not somehow transported or pass out through the walls of the intestines into the bloodstream, they must further be transported out into the circulatory system via the portal venous system route collecting blood from the intestines back through the liver, then back into the heart, in and out of the lungs, then back into the heart again, and finally into systemic circulation.

Inflammation hinders medication delivery

Localized inflammation of the target tissues can limit the delivery of any medication in general circulation. When inflammatory chemicals are increased in localized areas of infection or injury, they can cause mechanical, obstructing changes inside and around the smallest blood vessels (arterioles). Additionally, these arterioles can also become (chronically) constricted under the control of the smallest motor nerve fibers of the autonomic nervous system, resulting in a reduced amount of any medicine delivered via the bloodstream to those target tissues.

SIS electromedical technology

The operation and effects of the SIS electromedical technology does not depend on blood flow. Operating on the basic physics of electric voltages, electric currents and conductivity, a microorganism-specific low intensity constant direct current (LIDC) is delivered via the shortest possible route, directly to the target infection.

To read about the SIS electromedical technology for infection treatments, please continue to the link below:

HOW IT WORKS >

Question 11

Where can I read more about the published medical-scientific supporting articles, data and background to the SIS electromedical technology?

sismanufacturing · Accepted Answer

Please see our RESEARCH >

Question 12

Are the SIS machines medical devices?

sismanufacturing · Accepted Answer

No. The SIS machines are not medical devices. The SIS machines are not the future electromedical devices that SIS is currently developing.

The SIS machines are consumer health products, and the W and M series SIS machines are also software driven devices for providing supplementary alerts and information to a healthcare professional for their decision-making in the course of their standard wound or infection management delivery, without giving any treatment.

You can read more about the regulatory supply conditions of the SIS machines available on the Checkout page.

Question 13

Do you give support for use of the consumer health SIS machines?

sismanufacturing · Accepted Answer

Yes. We provide full and ongoing support to the original purchase user of SIS equipment for its correct and optimal application. We will always communicate promptly and give as much help as necessary.

Question 14

Can the SIS machines M250/M20MA make ionic 'colloidal' silver solution?

sismanufacturing · Accepted Answer

Yes, the M250 and M250MA SIS machines are ideal and easy to use for colloidal silver production. The SIS machine electrode cable can also be easily connected to widely available pure silver rods made specifically for colloidal silver production, using the set of Alligator Clip Cable Adaptors supplied with each SIS machine M250/M250MA. The SIS electrodes can also be used in place of silver rods, though the rate of silver ion release will be far slower.

The M250 and M250MA machines have an automatic voltage polarity reversal function, which is very useful for colloidal (ionic solution) silver production. Periodically, the voltage polarity reversal 'cleans' electrochemical debris from the surface of the silver rods or SIS electrodes that builds up during use. This function can be manually disabled if required.

Question 15

Can the SIS machines be used to sterilize water?

sismanufacturing · Accepted Answer

Yes. The SIS machines M250/M250MA have also been designed for small scale water treatment and purification purposes.

We have not yet conducted an independent laboratory test of water sterilization. We therefore disclaim that we imply or have any data to support or confirm the usefulness of the SIS machines for this purpose at this time. We intend to conduct the necessary assessment soon [target: 2022].

Question 16

Are the SIS electrodes self-adhesive?

sismanufacturing · Accepted Answer

No, the SIS electrodes are not sticky. They need to be held onto the body using standard adhesive medical fixation tape or other types of physiotherapy or injury rehabilitation tape. Bandages or other emergency means can also be used if necessary.

Fixation tape is a generally available, non-prescription item from any chemist or pharmacy, and from our SHOP >

SIS ELECTRODES >

HOW IT WORKS >

INSTRUCTIONAL VIDEO >

Question 17

How many times can the SIS electrodes be re-used?

sismanufacturing · Accepted Answer

Typically (for a severe or acute infection or wound) with approaching ideal 24/7 continuous use, we recommend replacement of the (+)positive electrode every 12-48 hours, and replacement of the (-)('return') electrode every 24-48 hours. These guidelines can be modified depending on anatomical location and other factors such as ambient temperature that will affect sweating.

Further information and instructions for application of the SIS electrodes are included in the operating manuals of the SIS machines, and on the Instructions For Use card included in each SIS electrode pack.

SIS ELECTRODES >

HOW IT WORKS >

INSTRUCTIONAL VIDEO >

Question 18

If I have a microcurrent stimulator can I use it with the SIS electrodes?

sismanufacturing · Accepted Answer

Yes, but with caution and some restrictions. The SIS electrodes are only designed for use in the low microcurrent range and only with low voltages (maximum 5-10 Volts).

The SIS equipment and technology should not be compared to commonly available microcurrent stimulators, either electronically or therapeutically. These devices are not capable of the electronic requirements for silver iontophoresis or low intensity direct current (LIDC) therapeutics using silver-nylon cloth as electrochemical or electrical anode and cathode. The SIS equipment direct current (DC) devices have no output stimulation frequency. Most microcurrent stimulators are not DC devices: they are frequency emitting, pulsed waveform generating devices, similar to or actual alternating current (AC) devices.

For silver iontophoresis or low intensity direct current (LIDC) therapeutics using silver-nylon cloth electrodes acting as the (+)positive and (-)negative electrochemical or electrical anode and cathode for the release of silver cations (Ag+s) or for LIDC therapeutic effect, extremely stable ultra low amperage DC Output Current with nanoampere accuracy is required. This specification is beyond the capabilities of generally available microcurrent stimulators.

Additionally, the SIS electrostimulators are sophisticated realtime and statistical monitoring devices of the SIS silver-nylon cloth electrode↔skin contact. This function is also critical for silver iontophoresis or low intensity direct current (LIDC) therapeutics to occur over time at ultra low constant DC.

Anonymous Manufacturer Profile	Typical 808 nm Output	Common Product Format	Wavelength Control	Thermal Management	Typical Application Fit	Quality and Reliability Indicators	Buyer Support Capability
Profile 1: High-Power Fiber-Coupled Specialist	30–200 W continuous-wave per module; higher power available through stacked or combined modules.	Fiber-coupled modules, multi-emitter packages, and pump assemblies.	Center wavelength commonly specified at 808 nm with a typical tolerance of approximately ±3–5 nm, depending on product class.	Conductive-cooled or water-cooled plates; thermal resistance is normally specified in the technical datasheet.	Industrial heating, solid-state laser pumping, medical systems, and high-throughput illumination.	Burn-in testing, optical power screening, wavelength verification, and environmental testing are commonly expected.	High Strong engineering customization and integration support.
Profile 2: Medical Diode Module Specialist	1–30 W continuous-wave or pulsed output per handpiece or treatment module.	Compact diode modules, handpieces, and integrated treatment heads.	808 nm nominal wavelength; spectral tolerance and temperature shift should be confirmed for each model.	Integrated heat spreaders, fans, thermoelectric cooling, or water-assisted cooling depending on power level.	Hair reduction, photobiomodulation, therapeutic systems, and other regulated equipment.	Traceable calibration, electrical safety testing, optical safety controls, and production records are important.	High Usually provides documentation and regulatory-development assistance.
Profile 3: Industrial Bar and Stack Supplier	40–150 W per bar; stacked assemblies can reach several hundred watts.	Laser bars, vertical stacks, and conduction-cooled arrays.	808 nm product families commonly use broad-area emitters with application-dependent spectral bandwidth.	Water-cooled microchannel plates or robust conduction-cooled heat sinks.	Materials processing, pumping, thermal treatment, and industrial illumination.	Emitter uniformity, bar-to-bar matching, lifetime testing, and solder-joint inspection are key checks.	High Well suited to volume projects requiring mechanical and thermal customization.
Profile 4: OEM Component Manufacturer	200 mW–20 W for single emitters and compact subassemblies.	TO-can packages, butterfly packages, submounts, and OEM diode modules.	Nominal 808 nm selection with package-specific wavelength and temperature specifications.	Passive heat sinking for lower power; TEC or active cooling for stabilized modules.	Instrumentation, sensing, compact medical equipment, and laboratory systems.	Incoming material control, automated optical testing, and lot traceability are typical requirements.	High Good for repeat orders, design-in work, and private-label integration.
Profile 5: Research and Laboratory Supplier	50 mW–10 W, often with adjustable current or temperature control.	Benchtop modules, fiber-coupled sources, and diode-driver packages.	Often offers tighter selection options and measured wavelength data for individual units.	Air-cooled or TEC-controlled housings with accessible operating controls.	Optical experiments, spectroscopy, photobiomodulation research, and prototype development.	Individual test reports, measured power curves, and operating-limit documentation are commonly available.	High Strong technical communication for prototypes and low-volume purchases.
Profile 6: Cost-Optimized Standard Module Supplier	1–20 W for standard modules; output and lifetime depend strongly on cooling conditions.	Standard fiber-coupled modules, laser heads, and basic diode assemblies.	808 nm nominal specification with standard commercial tolerances.	Passive or fan-assisted cooling; high-power versions may require external water cooling.	General illumination, entry-level equipment, prototypes, and price-sensitive systems.	Basic power and wavelength checks; buyers should request lifetime data and aging-test results.	Medium Usually efficient for standard products but less flexible for customization.
Profile 7: Precision-Wavelength Module Supplier	100 mW–15 W, depending on package and stabilization requirements.	TEC-stabilized modules, butterfly packages, and fiber-pigtailed sources.	Enhanced wavelength control through temperature regulation and calibrated drive electronics.	Integrated TEC, thermistor feedback, and controlled heat dissipation.	Analytical instruments, sensing, calibration systems, and wavelength-sensitive research.	Wavelength-versus-temperature curves, power stability data, and calibrated test reports are valuable indicators.	High Strong support for optical specifications and system-level stability.
Profile 8: Ruggedized Industrial Module Supplier	2–50 W, with continuous-wave and pulsed operating options.	Sealed modules, rugged laser heads, and vibration-resistant assemblies.	808 nm nominal output with application-specific spectral and power tolerances.	Reinforced conduction cooling, sealed thermal paths, or liquid cooling for higher-power designs.	Industrial automation, outdoor equipment, machine vision, and harsh-environment systems.	Vibration, shock, humidity, thermal cycling, and accelerated aging tests are particularly relevant.	High Useful for system qualification and environmental design reviews.
Profile 9: High-Volume Contract Manufacturer	0.5–30 W for standardized products; volume capacity is usually the primary advantage.	Standardized modules, private-label assemblies, and repeat-production components.	Uses fixed product specifications to simplify production and maintain consistency.	Standard heat sinks, fan cooling, or predefined liquid-cooling interfaces.	Consumer equipment, commercial devices, and large recurring production programs.	Process capability data, lot consistency, incoming inspection, and production traceability should be requested.	High Strong logistics and production planning; customization may be limited.
Profile 10: Custom Engineering and Integration Partner	Application-dependent; commonly develops systems from sub-watt modules to multi-kilowatt assemblies.	Custom diode arrays, complete laser heads, drivers, cooling assemblies, and integrated subsystems.	Can combine wavelength selection, power control, optical coupling, and feedback requirements.	Thermal design may include heat pipes, liquid cooling, TEC control, or custom microchannel structures.	Specialized OEM platforms, complex medical systems, research instruments, and automation projects.	Design verification, failure-mode analysis, qualification testing, and documented change control are important.	High Best suited to technically complex projects with longer development cycles.

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