Laserod Wafer

Laserod Wafer

Laserod Incorporated was founded by Rod Waters in the mid 1990s, succeeding Florod, a company established by Waters and a partner in the 1970s.

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For the shaping of extremely porous structures, the femtosecond laser has established itself as a unique instrument.Laser micromachining can be used to weld, cut, drill, and make other material modifications to achieve features on the single or double-digit micrometer level.Femtosecond lasers facilitate high precision processing without any heat effect on the substrate: direct writing, mask projection, and interference.The femtosecond laser micromachining system (femtofab) is a multi-utility laser machine designed for numerous industrial applications.For instance, the unique porous structure of polyurea aerogel has many attractive applications, including lightweight thermal capabilities.Picosecond and femtosecond laser micromachining has developed as a reliable tool for precise manufacturing of these materials and electronic industries.These processes are used to make fine drilling and machining into hard metals and ceramics and soft plastic to form various nano and microtextures to improve surface functions and properties in products.By aiming the laser beam on the surface, direct writing is performed.
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Today, in various sectors, the domain of laser micromachining has empowered things that cannot even be imagined a few decades back.Several parameters cannot be accomplished by conventional methods, except for laser micromachining.The idea of utilizing various lasers such as femtosecond or picosecond lasers to micromachine the finer parts is unique, cost-saving, and time-saving.When you need to create machines, tools, devices, etc., with precision parts and need to have components moving smoothly, you should consider laser micromachining.With laser engraving and precision drilling, you can be assured that the devices are built to the closest specifications possible.Lasers are highly powerful beams, and high-intensity lasers are used to cut into some materials that you would not usually be able to cut using conventional techniques.It can also be used to make complex cuts that might be required for certain parts within the machines.With femtosecond or picosecond laser micromachining, you can get the cut right up to the millimeter specification without any difficulty.
The modern method of laser micromachining is the process of using ultrafast lasers for cutting, drilling, welding, or making other material modifications to achieve features at the single or double-digit micrometer level. Compared to more conventional uses such as a hole and via drilling, the picosecond and femtosecond laser micromachining has progressed as a reliable method for precise manufacturing. For various industries, picosecond and femtosecond laser micromachining help in fine drilling & machining of hard metals and ceramics as well as soft plastic. It also helps shape various nano and microtextures for the improvement of surface functions and properties in products. Micromachining of dental implants Microtexturization of the layers of an implant tested to improve bone formation in dental implants is one of the many femtosecond lasers applications. The laser industry continues to deliver advanced laser solutions to today's processing problems.
Owing to its specific properties, such as non-contact manufacturing, no mechanical cutting forces, and no process tool wear, laser micromachining of transparent materials such as glass is an ideal method.However, the use of traditional lasers to machine tungsten carbide, such as the nanosecond pulsed laser, has been found to induce thermal effects, issues with residual material redeposition, and other problems.Picosecond pulsed laser has evolved as an efficient micromachining process.This technique can drill high-quality microholes, engrave various features, and produce micro or nano surface structures on a transparent surface.Laser micromachining of glass (transparent materials)The high clarity, strength, and chemical inertness of glass are the reasons why picosecond laser micromachining is commonly used in many consumer electronics.Besides, future systems are expected to focus more heavily on the glass substrate to provide increased structural rigidity and introduce feature holes needed to be drilled into the glass.However, as glass substrates are thinner to accommodate smaller and lightweight products, conventional glass drilling methods fail to retain the necessary consistency.It is crucial that edge cracking and residual edge tension are eliminated for touchscreens where panels nearly often break from the edge, even though stress is applied to the center.This problem can be solved by the high peak power of picosecond lasers.Since glass is practically invisible to visible wavelengths, only infrared or ultraviolet wavelengths are used.
From their inception, lasers have been used in a wide range of material micromachining & have changed our lives entirely in many respects.Laser micromachining is used in microelectronics, aerospace, medical, solar cells, transducer sensors, display sectors, and many more.Lasers have an accuracy that was historically unavailable, even by the most knowledgeable professionals.In high-tech industries, the relentless speed of innovation has resulted in ultrafast picosecond lasers, which have become a useful resource, particularly for high-precision applications.This is because of the unique operating procedure of this form of laser, which allows patterning and clean cutting of sensitive materials and thin films used in many devices and micromachining of delicate materials such as glass.Laser micromachining replaces conventional cutting and drilling methods in many applications, reducing the use of other elements.Micromachining of solar cellsSolar cell producers are working to achieve grid power cost parity in two ways: reduce the cost of cells and improve the efficiency of cell light conversions.Most solar cells are currently based on silicon wafers.
Femtosecond laser solutions, which include micromachining, are constantly growing and evolving across various business areas.Ultrafast lasers are predominantly used in applications where the requisite HAZ and efficiency are not achieved by traditional CW, long-pulsed fiber, nanosecond, and picosecond laser systems.A femtosecond laser represents 10 to the −15 of a second, which is one-millionth of a billionth of a second.At given pulse energy, the laser's peak power increases as the pulse's length become shorter.Hence, femtosecond lasers have a much higher peak power than longer pulsed picoseconds, millisecond or nanosecond pulsed lasers.Since total energy is transmitted to the substance and less is drawn into heating the material, these higher peak powers result in higher removal rates in a material.These femtosecond lasers' high peak power, sometimes several-MW, disrupts the atoms and electrons in the material, resulting in what is known as a "Coulomb explosion."A Coulomb explosion is an-alternative cold processing to traditional thermal ablation used by longer pulsed lasers.Ablation is a thermal mechanism that relies on molecules and atoms local heating, melting, and vaporizing.
The services that could be rendered through the process include laser precision cutting, laser precision welding, laser marking and engraving, laser polishing and hardening, etc.Lasers are obviously the main tool used, but the advanced targeting and imaging systems help make this technology stand out.Lasers are generally very versatile and flexible.They also utilize certain substances in absorbing electromagnetic energy during the engraving process.Benefits of Laser Engraving & MicromachiningLaser micromachining provides a lot of advantages, especially for the technological and industrial markets.The mechanism leads to the success of different companies that regularly use it to achieve all kinds of objectives and purposes.The method provides cost-effective solutions for touchscreen technology, fog windows, microfluidics and more using the power of picosecond and femtosecond lasers.Typical ApplicationsVarious applications could be produced through these micromachining techniques.
 High speeds and high versatility are the main benefits of laser micromachining when it comes to drilling and making holes.Micro-drilling has two distinct laser processes as with cutting: fusion drilling with pulsed lasers and additional gas support - and vaporization-induced melt ejection, such as with q-switched solid-state lasers.By choosing the proper wavelength and power density of the laser beam, almost all solid materials such as metals, semiconductors, plastics, ceramics, diamonds, etc.can be laser-drilled.Various Methods for Laser DrillingFor selective roughening of surfaces for gluing and coating processes, pulse drilling of holes at a depth of some microns is used.Single-pulse methods may be used for through holes in small workpiece thicknesses.For thicker materials, percussion drilling is the first option and can be accomplished by applying several laser pulses with the appropriate depth.A combined drilling-cutting method or the multi-pass method is used for trepanning drilling for large diameters.Laser drilling of silicon wafers by Laserod creates virtually no micro cracks or edge melting that could weaken the cell during further processing.
Laser marking and laser engraving innovations in the pattern or mold making industry are becoming ever more prevalent.Mold makers know that machining small cavities in molds are difficult and time-consuming, and extensive hand polishing is usually required to finish the job.If the mold is either hardened or constructed of pre-hardened materials, the job is rendered much more difficult.Deep laser engraving provides an effective form of machining without contact that is effective on hardened tool steels and can penetrate hard-to-reach areas.Deep Laser EngravingDeep laser engraving is generally regarded as a machining process that removes up to 30 thousandths of an inch of material.It is often used for adding details to molds such as patterns and shapes, or for adding identification marks.Advantages of Laser EngravingA significant advantage of using picosecond and femtosecond lasers to engrave molds is that they operate well on hardened steel surfaces.It also works wherever there is a line of sight to the point to be marked.
A wide variety of highly analytical key performance metrics and the reliability to survive harsh operating conditions requires the best technology to achieve.Femtosecond lasers can meet the variable consumer demands in an incredibly large cross-section of the industry.Today, there are potentially three major fields of use for femtosecond lasers: medical devices, micromachining small parts and advanced research projects.A significant factor behind the large-scale implementation of advanced optical technology such as femtosecond lasers is the potential to work efficiently in conventional research environments and under rough environments.Speaking more on that, we have four essential benefits of femtosecond laser micromachining:Transparent Materials ProcessingIn transparent materials manufacturing, femtosecond lasers are an excellent choice, providing manufacturers the chance to fine-tune the ablation and welding of glass with unparalleled thermal side effect mitigation.Microfabrication AbilityFemtosecond laser micromachining and microstructuring are now common, providing surgically accurate ablation at smaller scales than ever.With unparalleled mitigation of the heat-affected zone (HAZ) and broad compatibility with different materials, femtosecond laser micromachining is increasingly trusted for critical markets through engineering high-precision components.This includes manufacturing small parts, from watch components to medical sensors, and even broader, more developed industries, such as components for automobile engines.Imaging and Spectroscopy CapabilitiesFemtosecond laser micromachining, due to its high peak forces and ultrafast dynamics, is generally at ease in imaging and spectroscopy applications.
Conventional pulsed-laser machining processes dissociate matter at atomic and molecular levels by application of laser radiation.The absorbed laser energy is passed to the material's atomic and molecular lattice, which induces ablatement of the substance.Simultaneously, this energy is ultimately transformed into heat that disperses out of the laser spot volume beyond the laser pulse duration.However, surgically clean and extremely localized laser ablation is possible without significant damage or alteration of the underlying material, by using femtosecond laser micromachining.Femtoseconds are the time-scale in which a process called cold ablation can develop.The principle of cold ablation is an ablation that happens in the process of femtosecond laser absorption, during the athermal state of the substance.The aim is to remove excess material before it is in a state of total thermal equilibrium, allowing it less chance to create heat that will migrate away from where directly absorbed laser energy.The material's athermal ablation and thermalization happen simultaneously, unlike digitally turning it on or off in the time.This makes the time for the cold, athermal, or thermal ablation largely overlap each other at various degrees of weights.
The laser micromachining of small parts accurately and repeatability on thinner sheet metals requires a precise system. Otherwise, you're just using a sledgehammer to crack nuts and losing money in the process. The use of a high-power laser on thin metals will cause all sorts of problems that could be prevented by a less powered machine. Our thin metal cutting and drilling system is a laser cutter optimized for micromachining small parts in both prototypes as well as industrial environments. Operating on various metals, from steel to titanium, alloys to aluminum, our femtosecond and picosecond laser micromachining systems provide superior performance and unmatched reliability. The cutting and molding of thin metals are one of our many specialties and our use of femtosecond and picosecond laser micromachining systems guarantees low thermal distortion.
The femtosecond laser has proven to be a unique tool for shaping highly porous materials.Likewise, laser micromachining can be utilized to cut, drill, weld, and make other material enhancements to achieve single or double-digit micrometer level features.Micromachining using femtosecond lasers assists in high precision processing without any heat effect on the substrate.The femtosecond laser micromachining system is a turnkey laser machine designed for specific industrial processes.For example, polyurea aerogel's unique porous structure has many attractive applications, including lightweight thermal capabilities.Picosecond and femtosecond laser micromachining has developed as a reliable tool for precise manufacturing in electronic industries.These processes are used to make fine drilling and machining possible into hard metals and ceramics as well as soft plastic.They also form various nano- and microtextures to improve surface functions and properties in products.Direct writing is completed by focusing the laser beam on the substrate.The micromachining industry initially viewed the femtosecond laser much as conventional wisdom perceived on the internet back in the early 1990s.Today laser micromachining and texturing abilities have taken a huge step forward thanks to femtosecond laser micromachining.
High-end manufacturing often utilizes polymers and their polyimide subsets since they are mechanically reliable, excellent electrical insulators, and are inert.Polymers are commonly used as:Substrates for electronics or optical componentsPrinted circuit boards (PCBs)Chemically inert laminatesElectrical or thermal insulation tapePolyimides also offer manufacturers many advantages.Manufacturing lightweight and miniaturized PCBs in multiple layers of polyimides help minimize mobile devices' size.Polymer laser micromachining, for example, cutting and drilling, is required in nearly all cases.Enhancing the Quality of Polymer MachiningFor polymer machining- Lasers are the right choice because of their high precision and comprehensive process capabilities.Micro-drilling and high accuracy cutting are examples of these operations.Laser-initiated ablation is a polyimide and polymer processing technique that uses very short pulse durations with high power pulses.This easily vaporizes material below the focused laser spot in high accuracy, which prevents heat from being diffused into the edge of the spot due to its short length.Polymer Laser Micromachining with Laserod TechnologiesFemtosecond laser micromachining removes HAZ and any potential component degradation.
Laser micromachining is often an essential part of device development in a number of uses, including the manufacture of medical equipment.These components are then integrated into a variety of products ranging from complicated surgical instruments to simple single-use products utilized by caregivers in or out of the hospital when needed.Medical product designers and suppliers have to face up to stringent corporate obligations, such as profit margins and industry-wide regulations such as FDA compliance, system reliability, and safety, etc.Innovative techniques are used to help solve all of these challenges in order to create a value-driven atmosphere for consumers, care practitioners, and manufacturers alike.Fiber chirped pulses are amplified by using a fiber amplifier to increase the ultrashort laser pulses in the picosecond and femtosecond ranges.More often associated with femtosecond laser micromachining, the use of laser pulses with exceptionally high power and short pulse lengths can make remarkably precise changes in materials.Femtosecond laser micromachining helps by focusing on the part to be machined, and these laser pulses then vaporize or modify the material with little-to-no thermal deformation of the surrounding area.Laser MicromachiningIn Medical Device ManufacturingThe ability to produce high-quality components is no surprise.Laser micromachining is increasingly adopted in the manufacturing of medical devices to revolutionize workflow processes.High-performance medical devices are designed with ever more complex geometry, with smaller feature dimensions than ever before, and tighter nanoscale tolerances (> nm).These specific criteria virtually prohibit any other manufacturing technique than laser micromachining, thereby starting to eliminate other existing machining processes.Femtosecond laser micromachining enables Laserod to achieve a variety of processes, such as cutting, drilling, and turning in just about any material.
Thin film removal is an incredibly accurate method that uses selective laser ablation to strip micro-and nano-scale films from the surfaces of various substrate materials. While 'thin' is a blanket term, it generally involves films ranging from fractions of a nanometer (nm) to just a few micrometers (μm) in thickness. Thin film is a layer of material found on the surfaces of the substances, which typically causes the interface to function differently than the bulk substrate. Other metals, such as titanium (Ti), react to exposure to air and oxygen in the atmosphere and are influenced by heat. Indium tin oxide (ITO) film and electrochromic glass film are two application fields for FCPA (fiber-chirped pulse amplification) thin film removal. Selective removal of thin films from substrates allows manufacturers to create precise patterns that can be utilized as circuitry in optoelectronic devices.
 Femtosecond laser micromachining is an innovative method used in creating two-and three-dimensional patterns on a sub-micrometer scale.Femtosecond micromachining is one of the most sophisticated forms of laser processing presently available, which uses laser pulses to initiate substance ablation in incredibly accurate focal points.Solid-state bulk lasers, semiconductor lasers, and Fiber lasers are among the most popular.A femtosecond laser, however, produces pulses that are both incredibly short and of exceptionally high peak intensity and can be used to trigger ultra-high precision ablation and material removal.Using high-energy femtosecond laser pulses, ablation of nearly every substance is possible with surgical-precision at microscale depths, and with a strict distinction between interfacial materials can be implemented.It offers many advantages over traditional laser-based micromachining techniques, allowing a wide variety of high-tech applications.
Here's why you should choose laser micromachining over mechanical cutting.Cleaner CuttingsLasers make for finer and smoother cuts, with complicated detail and right edge quality in sheet metal or circular, square, rectangular, and triangular tubes.Unlike mechanical cutting, cuts are burr-free and can be extremely complex.Lasers may also be used to cut wood, plastics, ceramics, or wax precisely.3D laser cutting is also available for parts with unique hole geometries, and CNC laser cutting is available for creating curves and creating complex 3D structures.6-axis laser cutting capabilities allow for cuts at any fancied angle for weld prep, plus deliver the highest accuracy for smooth fit-up of assemblies - all in a single application cycle.Higher Accuracy-Less Metal LossMechanical cutting includes contamination, wear, and damage of blades on cutting devices.Laser micromachining also results in higher consistency from part to part.Thus furthermore, since there are fewer wasted products, you can cut back on time as well as the effort it takes to clean up every day.Limited user interventionLaser micromachining is relatively easy to use and does not require a great deal of skill or training.
 Laser engraving is a technique in which laser technology is used to engrave, mark, or etch any object.This method is much more popular than other engraving procedures because the result is very clean and precise.The laser beam is emitted from the laser, and the controller traces the patterns onto the surface.A laser is so powerful that it can not only engrave but also cut if necessary.Plasma cutting and woodcarving are techniques that can take place with the help of a high-power laser.Printing on disposable cups, plastic bags, candy bar wrappers, and milk cartons is done using 'flexo printing,' which is done with the help of laser engraving.Mostly, laser engraving is used for materials that are "laser-able," like alloys and polymers.Woodwork, acrylic plastics, and plastic sheets (of soft drink bottles) are also commonly engraved.
                        Laser cutting or micromachining is a technology that uses a high-power laser beam to cut a wide range of materials.Once the laser is used on the substrate, it usually melts or burns, and a high-quality surface finish is produced.These are also known as Industrial laser cutters.There are various kinds of laser cutting methods:The Nd-YAG laser utilizes very high energy pulses for cutting, drilling, coring or resizing, trimming, and engraving different materials.The CO2 laser is utilized for drilling, cutting, and engraving.It is used for Industrial cutting of material; the CO2 lasers are utilized by Radio Frequency energy or transferring a current through the gas mix.The Radio Frequency (RF) method is not prone to problems such as electrode erosion.The gas flow can also affect performance.The neodymium Laser (ND): is also used for drilling.But here, high energy pulses are applied using a low repetition speed.Femtosecond or Picosecond laser micromachining is highly successful because it is a neater, cleaner, and faster way of cutting as compared to the traditional methods of cutting.
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