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Ceramic and Metal Medical X-Ray Tubes: The Future of Analytical Instruments Components

Innovacera Advanced Materials is a leading manufacturer of medical X-ray components, specializing in the production of a comprehensive range of products that combine the precision of metal with the exceptional properties of ceramics. Our expertise in Analytical Instruments Components is evident in the high-quality anodes, cathodes, X-ray tubes, and getter assemblies we produce. We leverage our advanced Ceramic-to-Metal Sealing technology to provide robust and reliable components that are tailored to meet the unique challenges of the X-ray market.

Our medical X-ray products are designed to seamlessly integrate various metal components with high-purity alumina (Al₂O₃) ceramics, which are known for their hermetic sealing properties. The use of Alumina X-ray power tube in our products ensures improved repeatability of focal spot positioning, longer tube life, and unmatched spectral purity. The flexibility in our design allows for customization to meet specific customer needs, while our consistent and repeatable manufacturing processes ensure cost-competitive production.

The hermetic Ceramic used in our components is a key factor in their reliability. It reduces the risk of seal leaks, offers thermal shock resistance, and is not limited by size constraints. The superior electrical performance of our components, which includes the use of hermetic Ceramic-to-Metal Sealing, allows for higher power and safety margin designs. Our innovative technologies extend the lifespan of X-ray tubes and highlight the many specific application benefits of combining ceramic and metal in our components.

We also offer custom solutions for other ceramic-to-metal components, such as feedthroughs and multi-pin headers, which are essential for Analytical Instruments Components that require precision and reliability.

For more information about our medical X-ray tubes and how our advanced technologies can benefit your applications, please contact us today.

How to protect mass spectrometry filament assembly?

The mass spectrometer filament, a critical component of analytical instruments, plays a pivotal role in generating an ion source within a high vacuum environment. The performance of this filament, often made from LaB6 Ceramics, directly impacts the sensitivity, resolution, and stability of the mass spectrometer. The LaB6 filament assembly, a type of filament assembly specifically designed for longevity and high performance, is essential for the reliable operation of mass spectrometry systems.

Both ends of the LaB6 filament assembly are connected to a high-voltage power supply, creating an electric field that facilitates ionization in the vacuum. In this environment, the metal atoms within the LaB6 filament are ionized, producing positive ions and electrons. These ions are accelerated by the electric field and interact with the filament surface, causing further ionization through collisions with surface atoms. This process generates a continuous supply of ions, forming an ion cloud that, when influenced by a magnetic field, separates ions of different masses, thus enabling mass spectrum analysis.

Given that the filament is a consumable, it may degrade over time, necessitating replacement. To protect the LaB6 filament assembly and prolong its service life, it is crucial to consider several factors that can accelerate filament damage.

The influence of oxygen
A leak in the mass spectrometer can introduce oxygen into the vacuum chamber, which, when combined with the filament’s operation, can significantly speed up the degradation process. Oxygen not only affects the filament but can also prematurely age the electron multiplier. To prevent this, it is advisable to check for air leaks using an Air/Water Tune before taking samples. Common leak points include the transmission line nut or the vent valve. Applying acetone to suspected leak points can help identify leaks by observing an increase in the abundance of m/z=58 ions.

Effect of solvents
Solvents pose another significant threat to the longevity of the filament. Particularly during liquid injections, large volumes of solvent can enter the mass spectrometer, potentially burning out a filament in normal operation. To mitigate this, setting a solvent delay time can be an effective strategy to protect the filament assembly.

In addition to these protective measures, the choice of filament assembly material is also critical. Tungsten (W) filament assembly, for instance, is known for its robustness and resistance to wear in certain applications. However, for applications requiring high analytical performance and longevity, LaB6 filament assembly remains a superior choice.

INNOVACERA, with its extensive expertise in the production and manufacturing of filament assemblies, including LaB6 Ceramics filament assemblies, stands ready to assist with your analytical instruments components needs. Should you require a high-quality LaB6 filament assembly or have any inquiries regarding the protection and maintenance of your mass spectrometry filament assembly, please do not hesitate to get in touch with us.

Properties and applications of silicon carbide ceramics

Silicon carbide ceramics is a kind of silicon carbide (SiC) as the main component of the ceramic material, with excellent mechanical properties at room temperature and high temperature mechanical properties, including high bending strength, excellent oxidation resistance, good corrosion resistance, high wear resistance and low friction coefficient. The high temperature strength of this material can be maintained to 1600 ° C, which is the best high temperature strength of known ceramic materials.

The following is a brief introduction to the properties and applications of silicon carbide ceramics

(1) Performance

Silicon carbide ceramics have the best oxidation resistance among carbides. However, between 1000 and 1140 ° C, the oxidation rate of SiC in the air is larger. It can be broken down by molten alkali.

Silicon carbide ceramics have good chemical stability, high mechanical strength and thermal shock resistance.

The volume resistivity of silicon carbide does not change much in the range of 1000~1500℃, and this characteristic can be used as a resistance heating element material. Silicon carbide heating resistance itself can also be called thermistor or semiconductor resistance. The resistivity of different types of silicon carbide thermistors varies with temperature.

(2) Application

Silicon carbide ceramics are widely used in various industrial fields, and its uses are as follows:

Industrial	Working environment	Application	Principal advantage
oil industry	High temperature, high hydraulic pressure, grinding	Nozzles, bearings, seals, valves	wear-resisting
chemical industry	strong acid, strong alkali	Seals, bearings, pump parts, heat exchangers	Wear resistance, corrosion resistance, air tightness
chemical industry	high temperature oxidation	Gasification pipeline, thermocouple sleeve	High temperature corrosion resistance
Cars & Planes	Engine combustion	Burner components, turbocharger rotor	Low friction, high strength, low inertial load
Cars & Engines	engine oil	Valve series element	Low friction, wear resistance
Machinery, Mining	grinding	Borax nozzle, lining, pump parts	wear-resisting
paper industry	pulp, waste liquid	Seal, casing, bearing, forming plate	Wear resistance, corrosion resistance, low friction
heat treatment smelting steel	high-temperature gas	Thermocouple bushing, radiation tube, heat exchanger, combustion element	Wear resistance, corrosion resistance, air tightness

Innovacera has been focusing on providing customers with ceramic material solutions for many years. Including but not limited to silicon carbide ceramic parts customization, if you have any needs, please feel free to contact us.

Introduction of AMB Substrate Technology

AMB (Active Metal Brazing) is a method of sealing ceramics and metals developed on the basis of DBC technology.

Compared with traditional DBC substrates, ceramic substrates prepared by AMB process not only have higher thermal conductivity and better copper layer bonding, but also have advantages such as lower thermal resistance and higher reliability. In addition, because its processing process can be completed in one heating, it is easy to operate, has a short time cycle, good sealing performance and a wide range of applications for ceramics, so this process has developed rapidly at home and abroad and has become a commonly used method in electronic devices.

AMB process description

AMB is to add active elements to the brazing material, form a reaction layer on the ceramic surface through chemical reaction, improve the wettability of the brazing material on the ceramic surface, so that the ceramic and the metal can be directly brazed and sealed.

Usually, the active element content is between 2% and 8% with good activity. When the content of active elements is too high, the brittleness of the brazing material will increase, thereby reducing the strength of the sealing surface. When the content of active elements is too low, the wettability of the brazing material to the ceramic will decrease, making the sealing difficult to complete.

Three kinds of ceramic materials of AMB

The ceramic lining produced by AMB process is mainly used in power semiconductor modules as the substrate of silicon-based and carbide-based power chips. At present, the mature AMB ceramic substrates are mainly: alumina, aluminum nitride and silicon nitride substrates.

At present, Al2O3 copper-clad ceramic substrates are mainly used in low-power heat dissipation devices such as LEDs, AlN and Si3N4 copper-clad ceramic substrates are mainly used in high-power IGBT modules such as high-speed rail and wind power generation.

1. Al2O3 ceramic substrate

Al2O3 ceramics are widely available and have the lowest cost. They are the most cost-effective AMB ceramic substrates with the most mature process. They have excellent characteristics such as high strength, high hardness, high temperature resistance, corrosion resistance, wear resistance and good insulation performance.

However, due to the low thermal conductivity and limited heat dissipation capacity of alumina ceramics, AMB alumina substrates are mostly used in fields with low power density and no strict requirements on reliability.

2. AlN ceramic substrate

AlN ceramic has better properties than traditional Al2O3 and BeO substrate materials due to its high thermal conductivity (theoretical thermal conductivity 319 W/(m·K)), low dielectric constant, thermal expansion coefficient matching that of single crystal silicon, and good electrical insulation performance, making it an ideal material for circuit substrate packaging in the microelectronics industry.

At present, aluminum nitride ceramic substrates (AMB-AlN) using the AMB process are mainly used in high-voltage and high-current power semiconductors such as high-speed rail, high-voltage converters, and DC power transmission. However, due to its relatively low mechanical strength, the high and low temperature cycle impact life of AMB-AlN copper-clad substrates is limited, which limits its application range.

3. Si3N4 ceramic substrate

AMB-SiN ceramic substrates have high thermal conductivity (>90W/(m·K)), thick copper layer (up to 800μm), and high heat capacity and heat transfer. In particular, when a thicker copper layer is welded to a relatively thin AMB-SiN ceramic, it has a higher current carrying capacity and better heat transfer.

In addition, the thermal expansion coefficient of AMB-SiN ceramic substrate (2.4ppm/K) is close to that of SiC chip (4ppm/K), which has good thermal matching and is suitable for reliable packaging of bare chips.

At present, AMB-SiN ceramic substrate is the preferred substrate material for application scenarios such as new energy vehicles, photovoltaic inverters, wind turbines and high-voltage DC transmission devices that require high reliability, high heat dissipation and partial discharge.

According to statistics, the ceramic substrates used for power semiconductors above 600V are mainly DBC and AMB processes, among which AMB silicon nitride substrates are mainly used for electric vehicle (EV) and hybrid vehicle (HV) power semiconductors, and AMB aluminum nitride substrates are mainly used for high-voltage and high-current power semiconductors such as high-speed rail, high-voltage converters, and DC power transmission.

Conclusion
The market demand for AMB ceramic substrates has increased, among which the rapid growth of electric vehicles, the accelerated installation of SiC, and the rapid growth of new energy vehicles are the main driving factors.

If you have any question about the AMB substrate, welcome to contact us at sales@innovacera.com.

Silicon Nitride and Zirconia for Oil and Gas Operations

In recent years, oil and gas suppliers have faced increasing challenges, and all choices for durable and reliable materials are never-ending. Customers within these industries are looking for greater durability and more reliable options to replace traditional materials.

Innovacera offers a range of silicon nitride and zirconia materials that provide excellent corrosion, wear, and thermal resistant characteristics enabling them to survive the most arduous environments, showcasing their ability to withstand the harshest conditions encountered during exploration, drilling, production, and refining processes.

Our Silicon Nitride (Si₃N₄) features:
·Excellent fracture toughness
·Very high thermal shock resistance
·Low coefficient of thermal expansion
·Extremely high hardness & wear resistance
·Excellent corrosion resistance in acids and alkaline
·High Strength at ambient & high temperatures up to 1300˚C

Our zirconia features:
·Excellent resistance to cavitation
·Corrosion and abrasion wear resistance
·High mechanical strength and fracture toughness
·Chemical wear resistance to the vast majority of reagents and abrasive slurries

Applications in Oil and Gas Operations:
1.Use in heat exchangers and thermal management
In heat exchangers, silicon nitride and zirconia tubes provide a reliable means of maintaining efficient heat transfer while resisting corrosion and high temperatures. Their thermal stability ensures the consistent performance of heat exchange processes.

2.As a Liners for drilling tools
Silicon nitride and zirconia tubes as a crucial role as liners in drilling tools. With the ability to withstand abrasive conditions and chemical exposure during drilling operations, these tubes contribute to the durability and longevity of drilling equipment.

3.As a protective sleeve for sensors and probes
Silicon nitride and zirconia tubes act as protective sleeves for sensors and probes used in various oil and gas applications. Shielding sensitive equipment from harsh conditions, they enables accurate data collection and measurement.

Magnesium Stabilized Zirconia Gas Atomizing Nozzles

MgO partially stabilized zirconia (Mg-PSZ) ceramic is an advanced ceramic material with high-performance applications. It is a composite material consisting of zirconium dioxide and a partial stabilization of magnesium oxide. MgO here helps to improve the toughness and mechanical properties than pure zirconia,such as higher fracture toughness, strength, and resistance to thermal shock.

Magnesia Stabilized Zirconia (MSZ) is a great refractory and insulating material due to high oxygen ion conductivity, high strength and toughness, and good thermal shock resistance. It has a clean melt at temperatures above 1900°C and above and is specially manufactured for melting superalloys and precious metals. Its superior thermal shock resistance to temperatures reaching up to 2200°C.

Gas atomization is a technique crucial to produce fine metal powder which can precisely control particle size and composition. In this process, molten metal is atomized into small droplets with high-velocity gas streams. In common way, nozzles is made by materials like tungsten carbide or zirconia ceramic . However, the advent of Magnesium Stabilized Zirconia Gas Atomizing Nozzles introduces a paradigm shift in this domain.

Magnesium Stabilized Zirconia Gas Atomizing Nozzles have emerged as a transformative technology, revolutionizing the metal powder production and shaping the landscape of various industries.

Advantage
1.Enhanced Thermal Stability: with high thermal shock resistance, it enable the nozzles to withstand extreme temperatures encountered during the atomization process, which can increase the operational lifespan and reliability.

2.Improved Corrosion Resistance: The inherent corrosion resistance of zirconia is further augmented by magnesium stabilization, which makes the nozzles with high wear-resistant and erosion-resistant.

3.Precision Atomization: The unique surface properties of magnesium-stabilized zirconia benifits uniform gas flow and efficient atomization, resulting in the production of metal powders with superior quality and consistency.

4.Reduced Maintenance Costs: The high strength nature of Magnesium Stabilized ZirconiaNozzles reduces the frequency of maintenance and replacement, so it is cost savings for industrial applications.

With the advantage of high thermal shock resistance, high wear-resistant and erosion-resistant,metal corrosion resistance in high temperature, excellent non-wetting characteristics, high strength, long service life and the stabilizers and grains combination can be designed according to customer’s using environment, magnesium Stabilized Zirconia Gas Atomizing Nozzles finds application across a diverse range of industries:

1.Metallurgy: magnesium Stabilized Zirconia nozzles are used in the metallurgical industry like continuous casting of steel, where they can withstand high temperatures and harsh conditions.

2.Thermal spraying: In thermal spraying processes, magnesium-stabilized zirconia ceramic nozzles are used to spray coatings onto surfaces to protect against corrosion, wear, and high temperatures.

3.Semiconductor industry: They are employed in the semiconductor industry such as chemical vapor deposition (CVD) and physical vapor deposition (PVD) , where precise control of material deposition is required.

4.Specialty glass manufacturing: manufacturers can use Magnesium stabilized zirconia nozzle’s diameter, spray pattern, and flow rate optimizing performance for various specialty glass manufacturing processes.

Besides the example list above, Mg-PSZ can be use for other field like Artificial/Laser Crystal Ceramic Temperature Field and high temperature melt flow control.With their high thermal shock resistance, high wet & corrosion resistance, and precision atomization capabilities, it can change many industry’s production status.

Vacuum aluminized composite conductive ceramic evaporation boat

1. Boron Nitride Evaporation Boat Application Areas:

-Areas of application:

-Packaging film aluminizing,

-Metallized film aluminizing of capacitors, Metallized coating of paper, textiles.

-metallization of hot stamping materials.

-Metallization of anti-counterfeiting signs

-Display metallization

-Solar Vacuum Aluminizing

-Semiconductor vapor deposition, germanium, nickel, titanium, electron beam -sputtering and other fields.

2. Features of Evaporation Boat:

Anti-adhesion: has good anti-adhesion, and can reduce material residue and pollution.

Conductivity: Usually has a low conductivity, which is helpful for certain processes that require controlled electron conduction.

Chemically inert: relatively inert in many chemical environments, not susceptible to corrosion

3. Evaporation Boat for Aluminum Plating:

-Shorter pre-heating time

-Better aluminum spreading capability

-Fewer sputtering and boat bending problems

-Longer service life

-More economical options

4. Innovacra’s product features and advantages:

The adoption of high purity and high quality raw materials ensures that the materials have good chemical properties.

We are adopting an international advanced vacuum hot pressing sintering method to ensure the excellent physical properties of the products.

The sintering process adopts two-way pressurization to ensure the consistency of the bulk density of the products.

Digital control of production equipment ensures stable and consistent product quality.

Unique process formula and optimized composition structure enhance the thermal shock resistance and flexural strength of the evaporation boat, improve the spreading ability and evaporation efficiency of aluminum liquid, enhance the corrosion resistance of aluminum liquid, and prolong the working life.

5. Innovacera’s Composite Ceramic Evaporation Boat Category:

Two-component: BN+TiB₂
Three components: TiB₂+ BN+ ALN

–Two-component: BN+TiB2
Main components: BN+TiB₂

Density 3.0g/cm³

Bonding component: B₂O₃

Color: Gray

Room temperature resistivity: 300-2000 Ω-cm

Working temperature: below 1800℃

Thermal conductivity: >40W/mk

Thermal expansion coefficient: (4-6)x10-6 K

Flexural strength: >130Mpa

Evaporation rate: 0.35-0.5g/min-cm²

–Three components: TiB2 + BN + ALN

Performance reference:

Resistivity (room temperature):300-2000μΩ-cm

Evaporation rate(1450℃):0.4-0.5g/min-cm²

Working temperature ≤ 1850℃

Thermal conductivity (room temperature /1450℃):> 100/40W/mk

Thermal expansion coefficient (1450℃): (4-6)×10-6K

Flexural strength (room temperature): 150mpa

How does a PBN heater work? What is the insulation material?

What is a PBN heater?

PBN material refers to pyrolytic boron nitride material obtained by CVD high-temperature deposition. BN refers to cubic boron nitride, which is obtained by hot pressing.

The common thickness of PBN parts is less than or equal to 3mm due to the different acquisition processes.

PBN heater refers to a graphite heater formed by depositing a thin layer of graphite on a PBN substrate and forming a graphite band by machining (laser engraving).

Finally, the graphite layer is covered with a layer of PBN cover layer (exposed electrode part) to become a complete graphite heater.

How many ways are there to process?

Generally, there are two ways:

1^st: PBN sheet to make a good groove, and then coated with pyrolytic graphite, add a layer of PBN coating (outside the circuit engraved by the pbn disk, deposition of pyrolytic graphite on the circuit, and then a layer of pbn deposited on the surface of the pg), the thickness of about mm, voltage and current, and then a layer of graphite.

Thickness of about 3mm or so, voltage and current according to the customer, but it should be low voltage and high current, fast heating.

2^nd: graphite good trough, then trough on both sides coated with PBN, but graphite as a heating device, through the alternating current heating, will produce magnetic resonance, PBN coating is easy to fall off, so do not recommend this way of production.

So this way of production is not recommended, generally according to the first way.

Therefore, it can be seen that the substrate and the insulating covering layer are PBN, and the heat generator is graphite tape.

Why is it manufactured in this way?

Graphite or pyrolytic graphite surface-wrapped coating, graphite is widely used in the heating field, but graphite in the vacuum and high-temperature conditions will continue to precipitate impurities, which will contaminate the ultrapure materials, the use of boron nitride non-porous, low coefficient of thermal expansion of the advantages of the graphite outer layer coated with PBN, so that the impurities precipitated by the graphite can be blocked, to protect the ultrapure materials are not contaminated. The graphite after coating is heated many times, and the surface layer of boron nitride is not easy to peel off.

Advantage:

PBN heating pad has the advantages of chemical stability, corrosion resistance, etc., generally the highest sample heating temperature of about 1200 ℃, can work in E-5mbar oxygen atmosphere.

When working, you need to pay attention to avoid large rapid temperature rises and falls caused by the PBN cover layer and graphite layer detachment, but also pay attention to ensure that the electrodes are in good electrical contact, to avoid overheating at the contact, and damage to the electrode.

Summarize the performance characteristics:

-Maximum temperature in vacuum 1650℃

-Maximum temperature in air 300 ℃（No recommend）

-High vacuum, extra high pressure, corrosive environment

-Very fast ramp rate, very low mass

-Very inert

-PG elements are encapsulated in PBN and are completely unaffected by deposition products

-Samples can be placed directly on the heated ceramic element plate

-Sizes up to 4″ square or round

If you need any assistance or larger heater sizes, please contact our technical sales team today. Note: Customization is possible.

Email:sales@innovacera.com

Tel:0086 0592 5589730

MCH Heater Used for Mass Spectrometers

Mass spectrometers are a technique for analyzing and identifying chemical substances by arranging gaseous ions in electromagnetic fields based on their mass-to-charge ratios.

Mass spectrometers can detect most analytes per borehole, so it is essential to have a non-contaminating heat source. In addition, competing requirements for instrument designs to reduce size and complexity while increasing sensitivity are being challenged.

Mass spectrometer heating elements, also called source heaters or gas line heaters, are used in mass spectrometers to turn the sample (typically in an aqueous or organic solution) into a vapor for analysis. Before the analyzer and detector areas, the heaters are part of the sample conditioning system, where the vaporized sample is then bombarded by ionized high-energy electrons and analyzed.

Heaters used in mass spectrometers are compact in design and provide a fairly high power density. They are fast responding and operate at temperatures up to 400 °C. They include internal temperature sensors for accurate control and limiting.

The INNOVACERA Advantage

Engineering Support for New Designs
Rapid Prototyping
Replacement Parts

Innovacera manufactures OEM and replacement heaters for a variety of mass spectrometer manufacturers and models.

Advantages of MCH heater

MCH ceramic heating element is high-efficiency, environmentally friendly, and energy-saving. ceramic heating element, which is mainly used to replace the most widely used alloy wire heating elements and PTC heating elements and components.

Technical characteristics:

Energy-saving, high thermal efficiency, unit heat power consumption is 20-30% less than PTC;
The surface is safe and non-charged, with good insulation performance, can withstand the voltage test of 4500V/1S, no breakdown, and leakage current <0.5mA;
No impulse peak current; no power attenuation; rapid heating; safe, no open flame;
Good thermal uniformity, high power density, and long service life.

Conclusion

MCH heaters have revolutionized performance by offering compact design, rapid heating, precise temperature control, and energy efficiency. These advanced heating elements enable mass spectrometers to have a non-contaminating heat source, greater accuracy and effectiveness.

If you have any questions about the MCH heater, welcome to contact us at sales@innovacera.com.

Quadrupole Ceramic Collars For Quadrupole Mass Spectrometry

Having over 10 years of experience in manufacturing technical ceramic solutions, Innovacera specialists in quadrupole mass spectrometry ceramic components, such as ceramic insulator components, ceramic collars, ceramic square frames, ceramic saddles; ceramic rods, ceramic filament supports, ceramic orifice plates, ceramic heater and so on.

QMS Quadrupole mass spectrometry is widely used for analytical techniques in which ions are filtered based on their mass-to-charge ratio (m/z) as they pass through a quadrupole field. Quadrupoles consist of a set of four electrodes of a particular length in a radial array, as shown in the photo. These ceramic insulator components can used for Xerox scan mass spectrometry instrumentation.

We can support customers to make low quantities of ceramic insulator components used in the proofing and prototyping stages of our customers’ designs of quadrupole mass filters, customized ceramic material and design are available. The standard collars are manufactured of 99.5% alumina ceramic and the size is 36.4*36.4*12mm, The electrode rods are made of molybdenum material.

The collars also can be made in round shapes or other customized designs, just send your drawing to us and then we can make them for you.

Innovacera provides a wide range of materials to solve problems where plastics and metals fail. Ceramics are ideally to provide the mechanical, electrical, thermal, and other properties needed for analytical instrumentation. Components from materials such as 99.5% alumina, and 95% ceramic with metal seals solve problems where plastics and metals fail.

Here are the 99.5 alumina ceramic material properties for your reference:

99.5 Alumina Ceramic Material Properties
Properties	Value
Main Composition	Al2O3>99.6%
Density	>3.95
Hardness (Gpa)	15~16
Room Temperature Electric Resistivity (Ω·cm)	>10 ¹⁴
Max Using Temperature(℃）	900.00
Three-Point Bending Strength (MPA)	450.00
Compressive Strength (MPA)	45.00
Young modulus (Gpa)	300-380
Thermal Expansion Coefficient(20-1000℃)(10-6/K)	6~8
Thermal Conductivity (W/m·k)	30.00
Dielectric strength(kv/mm)	18.00
Dielectric constant	9~10
Dielectric loss angle (*10-4)	2.00
Surface Roughness	<Ra0.05um

Quadrupole Ceramic Collars Advantages:

Ensure accurate alignment and positioning within the quadrupole magnet assembly.
Preventing electrical interference with the magnetic field.
Ensuring durability and longevity.
Ensuring precise control over the particle beam.
Low outgassing rates, making them suitable for high vacuum environments, such as those in particle accelerators.

The customized service offers customers a high degree of flexibility in the design to suit specific technical and commercial needs, if you need any quadrupole ceramic collars or other mass spectrometry instrumentation relative to ceramic components, welcome to contact us at sales@innovacera.com.

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