Science that is transforming lives and enabling the future
A major difference exists as more features from our smartphones are integrated, replicated, and expanded in our cars - reliability expectations. A smartphone is designed to work effectively for 3-5 years while cars expect 10-15 years with standard maintenance. Failure in our cars can create dangerous situations for drivers, passengers, and others on the roadway. Designing and manufacturing our cars to ensure the functional safety along with the performance expectations of our new digital transportation systems is challenging manufacturing models for carmakers.
The expanding need for massive data storage and processing has driven the migration from 2D to 3D architectures for logic and memory chips. These complex architectures, with their high aspect ratio (HAR) designs and ultra-thin layers, are forcing advances in metal and oxide deposition processes. Atomic layer deposition (ALD) is usually the method of choice for producing uniform layers with precisely controlled composition.
Beyond being one of the fun words in the semiconductor industry, the “FOUP,” front-opening-unified-pod, represented a radical change that has influenced the productivity of each fab and contributed to the capabilities our electronic devices today. At the inception of Moore’s Law in 1965, 30 mm (1.25”) diameter wafers were the standard. Leading up to the late 1990’s, seven generations of incremental increases would be introduced. At each point, manufacturing efficiencies and device performance opportunities existed to get “Moore” out of each wafer. Wafer storage and transport was primarily accomplished in open-air cassettes and pods, leaving wafers more susceptible to physical damage and contamination.
Why Switch to our Bags? Supply chain issues? Breaking bags? Freezing problems? Our Aramus™ bags can get you back to making lifesaving therapeutics.
Freezing down bulk drug substance (BDS) isn’t something you can play around with. This is a high value product where any failure or contamination due to the bag breaking can lead to delays in medicine getting to the patient. Making sure you pick the right solution to protecting that product makes a big difference. Here are three questions you should be considering:
Since the introduction of the mobile phone, scientists and engineers have been on a series of quests to make them smaller and smarter. And incarnation after incarnation, from shoe box large to smart phone tiny, they succeeded. Until, that is, demand for more data, more storage, faster speeds, and longer battery life created major roadblocks. New smartphone capabilities — from biometrics to more accurate geopositioning, from artificial intelligence to virtual reality — demanded significant improvements in chip power. Their constant use required pronounced leaps in battery life.
The impact of the freeze/thaw process on workflows requires it be treated as a unit operation of its own.
As a partner, Entegris is continuously developing solutions for our customers’ biggest challenges. An unprecedented pandemic came with a one-of-a-kind challenge: help a leading COVID-19 vaccine manufacturer scale up their process.
The pharmaceutical and biopharmaceutical industries continue to embrace the utilization of single-use systems (SUS). With the ever-growing adoption of SUS products, increasing scrutiny has been placed on the purity concerns of single-use components and their possible impact on the biomanufacturing, storage and transportation of high value final products.
Advanced 3D architectures for logic and memory devices increasingly rely on atomic layer deposition (ALD) to achieve high-quality, nanoscale conformal coatings. ALD deposits reactants and precursor molecules in alternating pulses to create the desired chemical makeup of the layers. Because of its ability to produce extremely thin films of uniform thickness and composition, ALD has supplanted physical vapor deposition (PVD) as the dominant deposition process for leading-edge technology nodes.
The Entegris Safe Delivery Source® (SDS®) package has been the leader in providing subatmospheric specialty gas storage and delivery for ion implant dopant materials since its inception more than twenty years ago.
The purpose of a CMP process is simple – to planarize the top layer of oxide or metal with an abrasive slurry. Manufacturing the slurry to the exacting standards required by the end user is not easy. To effectively planarize the wafer surfaces, both large and small abrasive particles must be removed prior to being dispensed. Thus, the target is a narrow particle size distribution between 30 and 200 nm to prevent both microscratches and underlayer defects.