These Systems Provide A Slow Diffusion Of The Drug Through The Polymeric Material Generator

Infographic comparing reservoir-type systems and matrix type systems for drug delivery.

Highlight differences in drug release mechanisms.

Discuss constant release rate and factors affecting drug flux.

Include definitions of each type.

Emphasize importance of polymer membranes and diffusion principles.

This image illustrates an experiment involving three groups of rats to study liver preservation techniques.

Group 1 is subjected to Ringer lactate washing and immediate ex vivo perfusion.

Group 2 uses the IGL-1 solution for cold storage for 24 hours followed by perfusion.

Group 3 incorporates DHN-5 into the IGL-1 solution before the same cold storage and perfusion steps.

Each group consists of eight rats,

clearly labeled.

The experiment is set in a laboratory environment with a focus on scientific accuracy and educational value.

The jars provide a clear view of the rats and their respective treatments.

Diagram illustrating the flow of using a logistics and container storage application.

Main components include a computer,

boxes,

and warehouse storage.

Arrows indicate process flow.

Scientific illustration shows adsorption of 4-methylbenzylidene camphor on microplastic fiber.

Display layers and particles clearly.

This image showcases a laboratory setting with a microscope at the center.

Droplets of vibrant blue and purple are scattered across the table,

illuminated by soft light.

A drop is being carefully placed under the microscope,

emphasizing the precision needed in scientific research.

The environment conveys a sense of advanced biotechnology and innovation.

This scene could reflect the use of CRISPR tools in CAR T-cell therapy,

highlighting modern techniques in genetic modification for medical advances.

Illustrates signaling pathways involved in protecting retinal cells from oxidative stress.

Nrf2 is central to pathways modulated by anthocyanins.

Highlights key enzymes HO-1,

SOD,

CAT,

GSH-PX with apoptotic modulation.

Mainly focuses on antioxidant mechanisms.

The image showcases a close-up view of a pink electrospun vascular graft,

highlighting its intricate structure.

The graft appears to be suspended on a lab shelf in a biomedical research environment.

Soft lighting gently illuminates its texture,

emphasizing the fine details of the electrospun fibers.

The blurred background suggests a busy laboratory setting.

This visual represents advances in medical technology,

specifically in creating artificial vascular grafts through electrospinning techniques.

An automatic hand-caught cake up and down laminating machine with a base.

Includes a mounting plate connected to the base.

Features unwinding and rewinding rollers.

A first motor is attached to one end,

with a guide rod and guide roller.

The installation plate has a conveyor mechanism and a hot pressing mechanism.

An illustration depicting a step-by-step scientific process using a polymer solution,

with diagrams of mixing,

fiber production,

and an end product,

labeled with technical terms.

This image sequence illustrates the comprehensive process of recycling used tires.

It begins with the collection stage,

where community members gather discarded tires from local areas.

The next step features the washing of tires using high-pressure hoses and special cleaning agents.

After cleaning,

tires are sorted by type and condition,

with clear labels guiding the classification process.

Tires are then cut into smaller pieces using specialized machines.

The resulting rubber chunks are processed into fine,

uniform rubber granules.

After that,

these granules are dried to remove any residual moisture,

ensuring high quality.

The cut and packaged granules are labeled and boxed for shipment.

Finally,

the last stage shows the distribution of rubber granules through commercial channels,

indicating their journey to be reused in new products.

Schematic view of the punch-out method for minimum-mass targets.

Target material is on the substrate film.

Punch-out laser pulse irradiates the back surface of the transparent substrate.

Tinfoil is ablated,

creating tin plasma at the boundary.

Remaining tinfoil is driven to high velocity by expanding plasma.

The illustration depicts the intricate design of an intravascular stent.

It features a two-layer structure: the outer layer acts as an anchor,

while the inner layer contains the electrodes and sensors.

The drawing clearly distinguishes between the two layers and their connection points.

Fine details highlight the engineering behind the stent's functionality.

This visual serves an educational purpose in the field of biomedical engineering.

This image represents a detailed physical arrangement plan for graduation batches spanning from 1971 to 2024.

The layout includes a centralized stage area designed for activities and visibility.

Each batch from 1982 to 2024 is organized into designated sections,

ensuring an efficient flow of participants.

Key areas,

such as the grandstand and parking,

are strategically placed for convenience.

Designated pathways enhance accessibility,

and clear signage improves navigation within the venue.

This comprehensive plan serves as a guideline for achieving a successful graduation event.

An infographic displaying various scientific materials represented by different geometric shapes,

with labels like 'Hydrogel' and 'Polymer',

showcasing a clear,

structured presentation.

Illustration showing soil contamination.

Image features a tomato plant with roots.

Various contaminants labeled including antibiotics,

heavy metals,

and PAHs.

Arrows indicate interaction mechanisms between microplastics and contaminants.

Overall,

it illustrates contamination effects on plant health.

create a scientific illustration of Deucravacitinib depicting cellular interactions with labeled elements

This infographic illustrates mechanisms that improve the oral bioavailability of Atorvastatin using Poloxamer 407 formulations.

It describes how solubility is enhanced,

protection from hepatic first-pass metabolism is achieved,

and micelle formation facilitates absorption.

It includes visual elements that depict each mechanism clearly.

The overall design is informative for audiences interested in pharmacology and drug formulation.

It serves as a tool for better understanding complex pharmaceutical concepts.

Detailed microscopic image showing modified polyurethane surface with sulfate alginate structures.

Focus on blood compatibility enhancements.

Bright colors and sharp details highlight the science aspect.

Design a compact microchip for NanoGuardTN to detect cancer-specific biomarkers in blood or saliva.

Use nanotechnology-based sensors for high sensitivity.

Support multi-biomarker detection and real-time data processing with wireless connectivity.

Ensure low power,

biocompatibility,

and durability for portable devices.

Flowchart illustrates Go-Back N protocol dynamics for sending packets.

Every 6th packet lost.

Total 15 packets sent due to retransmission.

Comparison with stop-and-wait protocol.

This detailed illustration depicts the development of virtual memory T cells during the in utero phase.

It illustrates key stages in the maturation of T cells,

showing the connections with other immune cells.

The diagram emphasizes various interactions,

including how memory cells are formed.

The focus is on the pathways that lead to the generation of effective immune responses.

Color-coded elements highlight important phases in the development process,

making it a useful resource for educational purposes.

This image illustrates the interaction between T and B immune cells.

Brightly colored representations of the immune cells are shown in a dynamic space.

The focal point is the connection between the two types of cells,

highlighted with an orange glow.

The background features a dark,

slightly blurred setting to emphasize the cells' vibrancy.

This composition effectively captures the complexity of the immune response in a visually engaging manner.

Illustration showing preparation of polyvinyl alcohol solution.

Includes measuring ingredients PVA powder and deionized water.

Mixing in a beaker on a stirrer.

Heating on a hot plate with thermometer.

Stirring for 30-60 minutes.

Cooling to room temperature.

Displaying final PVA solution ready for electrospinning.

Labels for each step with technical terms.

A three-neck flask with blue liquid in a laboratory setting.

Various glass beakers and flasks in the background.

Soft diffused lighting reflects on the surfaces.