1. SWOT
1.1. STRENGTHS
1.1.1. 1. Customization: Your business specializes in customized PPE solutions, offering personalized and tailored products to healthcare professionals. This unique selling point sets you apart from competitors and allows you to meet the specific needs and preferences of customers. 2. Innovation and R&D: Your commitment to research and development enables continuous innovation in PPE products. This helps you stay ahead of the curve, offering cutting-edge solutions that provide enhanced protection, comfort, and durability. 3. Partnerships and Collaborations: Building strong partnerships with hospitals, healthcare facilities, and medical device manufacturers gives you a competitive advantage. Collaborating with these entities enhances your credibility and provides opportunities for long-term contracts and market expansion. 4. Quality and Compliance: Ensuring that your PPE products meet all necessary quality and safety standards is crucial. Obtaining relevant certifications and adhering to compliance requirements demonstrates your commitment to delivering reliable and effective products, building trust with customers.
1.2. WEAKNESSES
1.2.1. 1. Production Capacity: As an industrial-sized 3D printing business, you may face limitations in production capacity, especially during high-demand periods. Ensuring scalability and optimizing production processes are important to meet customer requirements and avoid delays. 2. Cost of Production: 3D printing materials and equipment can be expensive, which may impact your production costs. Managing and optimizing production costs while maintaining competitive pricing is essential to ensure profitability.
1.3. OPPORTUNITIES
1.3.1. 1. Growing Demand for PPE: The ongoing COVID-19 pandemic has increased the demand for PPE globally, including in Australia. This presents a significant opportunity for your business to cater to the growing needs of healthcare professionals, hospitals, and other medical facilities. 2. Telehealth and Remote Monitoring: The rise of telehealth and remote patient monitoring offers an opportunity to develop specialized PPE accessories and solutions. Capitalize on this trend by offering products tailored to enhance the telehealth experience and meet the unique requirements of virtual healthcare consultations. 3. Sustainable PPE Solutions: As sustainability becomes increasingly important, there is a growing demand for eco-friendly and recyclable PPE products. Developing sustainable PPE solutions can attract environmentally conscious customers and differentiate your business in the market.
1.4. THREATS
1.4.1. 1. Intense Competition: The PPE market is highly competitive, with numerous suppliers and manufacturers. To stay ahead, it is essential to continuously innovate, offer superior quality products, and provide excellent customer service. 2. Price Pressure: Due to the competitive nature of the market, price pressure can be a threat to profitability. Balancing competitive pricing with the need to cover production costs and maintain profitability is crucial. 3. Regulatory Changes: Changes in government regulations and compliance standards can impact the PPE industry. Stay updated with regulatory requirements and ensure your products comply with all necessary guidelines to avoid any disruptions to your business. By leveraging your strengths, addressing weaknesses, capitalizing on opportunities, and mitigating threats, you can position your PPE plastic printing business for success and profitability in the Australian market. Regularly reassess and adapt your strategies to stay relevant and responsive to the evolving needs of the industry and your customers.
2. Raw Material
2.1. Types
2.2. Cost
2.3. Inventories
2.3.1. Consignment?
3. 1. Healthcare & Medical Action Plan: Develop prototypes of medical equipment or tools, showcasing the precision and customization capabilities of SLS. Offer workshops or seminars on the benefits of SLS in medical prototyping and tool creation. Companies/Entities to Contact: Royal Adelaide Hospital: As one of the largest hospitals in Adelaide, they would have a need for specialized tools or prototypes. SAHMRI (South Australian Health and Medical Research Institute): Engage with them for research-related tools and equipment. 2. Defense & Aerospace Action Plan: Create a portfolio showcasing parts or prototypes related to defense and aerospace equipment, emphasizing durability and precision. Attend local defense expos or seminars and network with key industry players. Companies/Entities to Contact: ASC Pty Ltd: They're involved in naval shipbuilding and submarine maintenance. BAE Systems Australia: An arm of the global defense, aerospace, and security company based in Adelaide. 3. Wine and Agriculture Action Plan: Develop unique promotional items related to wine – think specialized corkscrews, wine holders, or even art pieces for vineyards. Showcase the ability of SLS to create customized machinery parts which might be required for specific vineyard equipment. Companies/Entities to Contact: Penfolds: As one of Australia's iconic wine labels, based out of the Barossa Valley near Adelaide, they could be interested in promotional items or equipment. Pernod Ricard Winemakers: They manage several wine labels in Australia and could have various needs spanning promotional items to equipment. 4. Renewable Energy Action Plan: Prototype components for wind turbines or solar panels, showcasing the efficiency and speed of SLS. Offer consultations or workshops on how SLS can aid in the rapid development and testing of new renewable energy solutions. Companies/Entities to Contact: Tilt Renewables: An electricity generation company in Adelaide focusing on wind and solar energy. Simec Energy Australia: Engage with them for potential opportunities in renewable energy projects. 5. Education & Research Action Plan: Offer workshops to universities on how SLS can aid in research and development. Develop partnerships to provide students with hands-on experience, perhaps offering special rates for academic projects. Companies/Entities to Contact: University of Adelaide: Focus on engineering, art, and medical departments. Flinders University: Similarly, target departments that align with the capabilities of SLS, like engineering or design. General Approach Tips: Preparation: Before approaching any entity, ensure you have a strong portfolio or samples that showcase the capabilities and benefits of SLS. Engage Directly: Consider cold emails or calls, but make them personalized. Understand the company's needs and tailor your pitch accordingly. Local Networking: Attend local business events, seminars, or workshops. Networking in person can often lead to opportunities and collaborations. Offer Demonstrations: Given that SLS might be unfamiliar to many, consider offering live demonstrations to potential clients to showcase the technology's benefits. Remember, the key is to demonstrate how your services can solve specific challenges or needs for each company or industry. Tailor your approach, be persistent, and build relationships.
4. Selective Laser Sintering (SLS) offers distinct advantages in the automotive industry due to its ability to produce complex geometries, rapid prototyping capabilities, and the use of durable materials. Here are some of the parts or applications where SLS is commonly used in the automotive sector: Prototypes: Before mass production, companies often produce prototypes of parts to validate designs. SLS is ideal for this due to its speed and ability to produce parts that closely mimic final products in terms of material properties. Custom and Aftermarket Parts: SLS can be used to create specialized car parts for enthusiasts, niche markets, or unique vehicle models. This could be anything from custom air vents to specific dashboard components. Small Batch Production: For limited edition cars or specialty vehicles, SLS can be used to produce parts in small quantities that might not justify the costs of traditional tooling and molding. HVAC Components: SLS can be used to produce intricate ductwork or components of the HVAC system, especially for unique or customized configurations. Mounts and Brackets: Customized or specially designed mounts for sensors, cameras, or other electronic components can be created using SLS. Tooling and Manufacturing Aids: Jigs, fixtures, and other aids that assist in the manufacturing process can be produced quickly and precisely with SLS. Interior Components: Custom or prototype knobs, buttons, vents, or other intricate interior components can be made using SLS, especially for luxury or custom vehicles. Lighting Components: Prototype or custom-designed elements of headlamps or tail lamps, especially intricate structures or mounts, can be created using SLS. R&D Components: For research and development, especially in areas like aerodynamics or new technology implementations, SLS can be used to produce test components swiftly. Drones and Autonomous Vehicles: For automotive companies delving into drone technology or autonomous vehicles, SLS can be invaluable in creating lightweight, strong parts or prototypes. Fluid Channels: Components that guide fluids, like specialized oil channels or coolant pathways, especially for testing or prototype engines. Connectors and Covers: Various covers for connectors, electrical components, or sensors that might need customization or rapid iteration. To best utilize SLS for automotive applications, consider the following: Material: Make sure you're using the right material that can withstand the conditions it will be exposed to, such as heat, cold, or chemicals. Finishing: Depending on the part and its visibility or function, consider post-processing techniques to improve appearance or performance. Collaboration: Partner with local automotive shops, enthusiasts, or manufacturers to understand their needs and offer solutions tailored to them. Remember, the primary advantage of SLS in the automotive world is the ability to rapidly produce complex parts without the need for tooling. This makes it excellent for prototypes, customizations, and short-run production.
5. NFTs with Physical Collectibles 1. Concept Creation: Develop a series of unique, limited-edition 3D designs. These could be art sculptures, designer toys, or any other collectible item. The design's uniqueness is key; it should be something people would want to own both digitally and physically. 2. Tokenizing Your Designs: Turn each design into an NFT, creating a digital representation of your physical product. Platforms like OpenSea, Rarible, or Mintable can help you mint these tokens. 3. Marketing the USP: Emphasize that each NFT comes with a real-world, high-quality SLS print. This bridges the gap between the digital and physical collectible worlds. Highlight the quality and precision of SLS prints, ensuring potential buyers know they're getting a premium product. 4. Selling & Redemption: List the NFTs on popular marketplaces. When someone purchases an NFT, offer them an option to redeem the physical item. They provide proof of NFT ownership, and you ship the physical print to them. Alternatively, keep the redemption automatic, where every NFT purchase directly triggers the dispatch of the physical item. 5. Limited Runs & Scarcity: Create scarcity by offering limited runs of each design. For instance, only 50 prints of a specific design ever. Scarcity can drive demand and increase value. 6. Collaboration: Partner with established digital artists or influencers. They provide the design or promote the NFT, while you handle the physical printing and logistics. 7. Engage the Community: Regularly engage with your buyer community. Offer behind-the-scenes looks at the printing process, sneak peeks of upcoming designs, and polls to let them choose future designs. 8. Expansion & Variations: Consider offering variations like painted or metal-plated finishes on the physical items for higher-tier NFTs. As you establish your brand, think about branching into thematic series, collaborative collections, or even custom NFTs where buyers can tweak the design before minting. Key Considerations: Legality & Authenticity: Ensure you're adhering to all copyright laws and that your designs are original. Use blockchain to prove the authenticity of each item. Environmental Concerns: NFTs have faced criticism due to the environmental impact of blockchain. Consider using eco-friendly platforms or offsetting carbon footprints as a selling point. Logistics: Ensure you're equipped to handle international shipping if offering physical products globally. By blending the booming NFT space with tangible high-quality SLS prints, you're providing a unique value proposition. Not only are buyers getting a digital asset, but they're also receiving a real-world, tangible piece of art or collectible.
6. Business Model
6.1. Selling Printer
6.1.1. MODEL P
6.1.1.1. COST = $400,000 AUD
6.1.1.2. SALE = ?
6.1.2. MODEL S
6.1.2.1. COST = ?
6.1.2.2. SALE = ?
6.1.3. MODEL E
6.1.3.1. E360
6.1.3.1.1. economical, chinese made laser head
6.2. Printing as a Service
6.2.1. Orthopaedics
6.2.1.1. Find who? SA Health?
6.2.1.2. Engage Flinders University
6.2.2. Collaborate with medical device manufacturers
6.2.2.1. Who?
6.2.2.1.1. Leverage their market penetration and established network and expertise
6.2.3. Specialise in printing Nylon (PA12 PA11) + Additives
6.3. Printed Products
6.3.1. Medical
6.3.1.1. Dynamic Scoliosis Orthosis
6.3.1.2. Torticollis Orthosis
6.3.1.3. Elbow Varus/Valgus Orthosis
6.3.1.4. Elastic Ankle Foot Orthosis
6.3.1.5. Anti Ground Force Ankle Foot Orthosis
6.3.1.6. Ordinary/Moveable/Dynamic Ankle Foot Orthosis
6.3.1.7. Wrist/Palm Brace
6.3.1.8. Wrist Extension Brace
6.3.1.9. SPinal brace
6.3.1.10. Chest/Waist Brace
6.3.1.11. Knee Brace
6.3.1.12. Orthopaedics Insoles
6.3.2. Aerospace
6.3.2.1. we have material to withstand heat and wear
6.3.3. Automobile
6.3.3.1. spare parts on demand
6.3.3.1.1. need to create a databse of CAD
6.3.4. Daily Use
6.3.4.1. Pillows
6.3.5. Arts
6.3.5.1. Sculptures
6.3.5.2. Architectural models
6.3.6. Education
6.3.6.1. Kits like complex geomertic shaoes for math departments
6.3.6.2. anatomical models
6.3.7. Gaming
6.3.7.1. Table Top games
6.3.7.2. Figurines
6.3.7.2.1. NFTs
6.3.7.3. Avcon?
6.3.7.3.1. Life size suits for anime fans
6.3.8. Consumer Electronics
6.3.8.1. Enclosures
6.3.8.1.1. RT to check with Edaphic Scientific amd Enviropro, ICT
7. Compliance and Certification
7.1. What sort of certification does TPM3D have?
7.2. What certifications do we need?
8. 3D Printing
8.1. Technique
8.1.1. 1. Fused Deposition Modelling
8.1.1.1. Pros
8.1.1.1.1. cost effective
8.1.1.1.2. material variety
8.1.1.1.3. ease of use
8.1.1.1.4. large build volumes
8.1.1.1.5. layer bonding
8.1.1.1.6. support structures
8.1.1.1.7. open material system
8.1.1.2. cons
8.1.1.2.1. lower resolution
8.1.1.2.2. visible layer lines
8.1.1.2.3. material shrinkage and warping
8.1.1.2.4. slower print speed
8.1.1.2.5. limited material options for high-temp alpplications
8.1.1.2.6. support removal
8.1.1.2.7. noise & odor
8.1.1.2.8. bridging & overhangs
8.1.2. 2. Stereolithography (SLA)
8.1.2.1. Pros
8.1.2.1.1. high resolutions
8.1.2.1.2. smooth surface finish
8.1.2.1.3. wide range of material
8.1.2.1.4. accuracy
8.1.2.1.5. support removal
8.1.2.1.6. speed for detailed parts
8.1.2.1.7. suitable complex geometries
8.1.2.2. Cons
8.1.2.2.1. material limitations
8.1.2.2.2. cost
8.1.2.2.3. resin handling
8.1.2.2.4. post-curing required
8.1.2.2.5. build volume
8.1.2.2.6. safety concerns
8.1.2.2.7. brittleness
8.1.3. 3. Selective Laser Sintering (SLS)
8.1.3.1. Pros
8.1.3.1.1. material versatility
8.1.3.1.2. no need for support structures
8.1.3.1.3. complex geometries
8.1.3.1.4. strength and durability
8.1.3.1.5. high percision
8.1.3.1.6. heat resistance
8.1.3.1.7. large build volume
8.1.3.1.8. cost effective
8.1.3.1.9. best for Nylon and PE/PP materials
8.1.3.2. Cons
8.1.3.2.1. limited material
8.1.3.2.2. cost
8.1.3.2.3. powder handling
8.1.3.2.4. post-processing
8.1.3.2.5. resolution
8.1.3.2.6. energy consumption
8.1.3.2.7. limited color options
8.1.3.2.8. support powder removal
8.1.4. 4. Binder Jetting
8.1.5. 5. PolyJet Printing
8.1.6. 6. Digital Light Processing (DLP)
8.1.7. 7. Metal 3D Printing
8.1.7.1. FDM/FFF seems to be the go to
8.1.7.1.1. company?
8.1.8. 8. Carbon 3D Printing
8.1.9. 9. Bioprinting
8.1.9.1. a few companies invested in PEEK, almost human trial, RT to find out *
8.1.10. 10. Ceramic 3D Printing
8.2. material
8.2.1. 1.Thermoplastics
8.2.1.1. PLA (polylactic acid)
8.2.1.2. ABS (Acrylonitrile Butadiene Styrene)
8.2.1.3. PETG (polyethylene terephthalate glycol-modified)
8.2.1.4. Nylon
8.2.2. 2. Thermosetting Polymers
8.2.3. 3. Metals
8.2.4. 4. Ceramics
8.2.5. 5. Composites
8.2.6. 6. Photopolymers
8.2.7. 7.Powder-based Materials
8.2.8. 8.Biopolymers
8.2.9. 9.Rubbers and Elastomers
8.2.10. 10.Wax
8.2.11. 11. Paper and cardbox
8.2.12. 12. Bioinks