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Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_101_библиотеки_им_акад_М_И_Перельмана

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14.2 THE PATENT DANCE
Intellectual Property Issues for Scientists
The emergence of biosimilars has advanced healthcare by offering more accessible treatments. However, developing and commercializing biosimilars present challenges, notably patent disputes between manufacturers and reference product sponsors. The “patent dance,” established under the Biologics Price Competition and Innovation Act (BPCIA) in the United States, aims to resolve these challenges. This essay comprehensively explores the patent dance, discussing its history, current status, resolved and pending cases, and its impact and future prospects.
The patent dance began with the BPCIA in 2010, aiming to balance competition while protecting reference product sponsors’ intellectual property rights of reference product sponsors. The BPCIA introduced a regulatory framework for biosimilars and outlined the patent dance process as a means of resolving patent disputes. Over time, legal challenges and court rulings, particularly the land­mark Amgen v. Sandoz case in 2017, have shaped the interpretation and implementation of the patent dance.
This process continues to evolve, guided by regulatory directives and ongoing legal developments. The US Food and Drug Administration (FDA) has issued guidance documents clarifying aspects of the patent dance, such as information exchange and timing, streamlining the process to efciently resolve patent disputes.
Additionally, the patent dance has led to an increasing number of resolved cases. Both biosimilar manufacturers and reference product sponsors have utilized this process to negotiate settlements, exchange patent information, and occasionally proceed to litigation. These resolutions showcase the effectiveness of the patent dance in resolving patent disputes and facilitating the entry of biosimilars into the market.
Resolved and Pending Cases: Several signicant cases have found resolution through the patent dance process, highlighting its effectiveness. Examples include the legal disputes between Amgen and Sandoz over Zarxio and Genentech and Celltrion over Truxima. These cases have not only inuenced the interpretation of the patent dance but have also established legal precedents, offering guidance for future disputes.
However, it is important to note that the number of resolved cases through the patent dance is relatively low compared to overall biosimilar applications. Many disputes are settled through negotiations outside this formal process. Several cases remain pending, awaiting resolution through continued negotiations or potential litigation. These pending cases underscore the ongoing importance and necessity of the patent dance in balancing competition and intellectual property rights.
The patent dance plays a crucial role in the biosimilar landscape by providing a structured frame­work to resolve patent disputes. From a comprehensive standpoint, it presents both advantages and challenges. It serves as a platform for communication between biosimilar manufacturers and refer­ence product sponsors, enabling the exchange of patent information and potentially reducing uncer­tainty surrounding disputes. Moreover, it offers an avenue for early resolution of patent infringement issues, thereby facilitating more efcient market entry for biosimilars.
However, challenges persist, notably the complexity and costs associated with the patent dance process. Critics argue that its intricacies can be time- consuming and burdensome, potentially delaying biosimilar market entry. As the biosimilar market expands and new disputes arise, striking a balance between safeguarding intellectual property rights and promoting competition for the benet of patients and the healthcare system becomes increasingly critical.
In the future, renements and modications to the patent dance may address these challenges and streamline the process. Efforts toward international harmonization of patent dance procedures could promote consistency across jurisdictions.
Furthermore, as the eld of biosimilar evolves, monitoring the evolving legal landscape and regulatory developments remains crucial. Ongoing court cases and potential legislative changes can signicantly impact the effectiveness. It is important for stakeholders, including biosimilar
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manufacturers, reference product sponsors, regulatory authorities, and policymakers, to collaborate and actively engage in discussions to ensure that the patent dance process continues to strike an appropriate balance between competition and intellectual property protection.
From a broader perspective, the patent dance stands as a signicant component of the regula­tory framework for biosimilars. It not only fosters innovation and biosimilar product development but also safeguards intellectual property rights, encouraging continued investment in research and development. Ultimately, an effective patent dance process can foster a vibrant and competitive biosimilar market, enhancing patient access to affordable therapies.
The patent dance has become a pivotal process for settling patent disputes within the biosimilar sphere. Its history, characterized by legal hurdles and signicant court decisions, has heavily inuenced how it is understood and executed. While the procedure is still developing, regulatory advice and resolved cases showcase its efcacy in resolving patent conicts and enabling the intro­duction of biosimilars into the market. Nevertheless, hurdles persist, necessitating ongoing endeavors to strike a delicate balance between fostering competition and upholding intellectual property rights. The future trajectory of the patent dance hinges on continual renements, global coordination efforts, and the capacity to adapt to the shifting biosimilar landscape. Successfully navigating these challenges could see the patent dance bolster a thriving biosimilar market, delivering advantages to patients, healthcare providers, and the pharmaceutical industry.
Pending U.S. District Court BPCIA Litigations Aibercept+ Denosumab+ Natalizumab+ Tocilizumab Resolved U.S. District Court BPCIA Litigations Adalimumab+ Bevacizumab+ Epoetin alfa+ Etanercept+ Filgrastim+ Iniximab+ Peglgrastim+ Rituximab+ Trastuzumab+ Ustekinumab+
Source: Courtesy of Big Molecule Watch, https:// www.bigmo lecu lewa tch.com/
bpcia- pat ent- liti gati ons/ , Last updated: June 1 2023
The history of the patent dance for biosimilars traces back to the enactment of the Biologics Price Competition and Innovation Act (BPCIA) in the United States in 2010, as part of the Affordable Care Act (ACA). It aimed to establish an abbreviated pathway for biosimilar product approval and market entry.
The patent dance provisions in the BPCIA aimed to balance competition and protect the intel­lectual property rights of reference product sponsors. Although the legislation doesn’t explicitly mention the term “patent dance,” it outlines the process for resolving patent disputes between biosimilar manufacturers and reference product sponsors.
The key milestones in the history of the patent dance are as follows:
1. Enactment of the BPCIA (2010): Introduced a regulatory framework for biosimilars and included provisions for the patent dance, aiming for an efcient approval pathway while allowing reference product sponsors to assert patent rights.
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2. Legal Challenges and Interpretation: Post- enactment, legal debates arose about interpreting BPCIA provisions, particularly the patent dance. Scrutiny focused on aspects like timing and requirements for exchanging patent information.
3. Amgen v. Sandoz Case (2015– 2017): A signicant event involving a dispute between Amgen and Sandoz regarding Zarxio, a biosimilar of Amgen’s Neupogen. The case reached the U.S. Supreme Court, leading to a landmark ruling that claried certain patent dance aspects.
In Amgen v. Sandoz, the Supreme Court addressed whether the biosimilar applicant was obligated to complete the entire patent dance process and if the reference product sponsor could le an infringement lawsuit before the biosimilar product was commercially marketed.
The Supreme Court ruled that biosimilar applicants aren’t obligated to complete the entire patent dance process and can opt out of certain steps. Moreover, the Court held that the reference product sponsor could le an infringement lawsuit even before the biosimilar product was commercially marketed. This ruling offered crucial guidance and clarication on the patent dance process.
4. Subsequent Legal Developments: Following the Amgen v. Sandoz ruling, subsequent legal cases and disputes have arisen regarding the patent dance, contributing to the ongoing evolu­tion of this regulatory process. These cases have played a signicant role in shaping the inter­pretation and understanding of the patent dance provisions.
5. Continued Renement and Regulatory Guidance: In the years after the Amgen v. Sandoz case, regulatory authorities and organizations have offered additional guidance to further rene the patent dance process. The US Food and Drug Administration (FDA) has issued draft and nal guidance documents addressing various aspects of the patent dance, such as information exchange, timing, and dispute resolution.
These regulatory guidance documents aim to bring more clarity and predictability to the patent dance process, providing stakeholders with a clearer framework for resolving patent disputes. They cover issues such as the types of patents involved in the exchange, the timing of information exchange, and the consequences of non- compliance with the patent dance provisions.
6. International Perspectives and Harmonization Efforts: While the patent dance is primarily associated with the United States, other countries and regions have developed their own procedures for settling patent disputes related to biosimilars. International perspectives on patent dance- like processes differ, with some jurisdictions adopting similar steps, while others use different mechanisms.
Efforts to harmonize patent dance procedures have emerged to streamline processes across different jurisdictions. Organizations like the World Health Organization (WHO) and the International Federation of Pharmaceutical Manufacturers & Associations (IFPMA) have engaged in discussions and initiatives to encourage global consistency in resolving patent disputes for biosimilars.
7. Ongoing Evolution and Future Directions: The history of the patent dance continues to evolve with new legal challenges, court rulings, and rened regulatory guidance. The patent dance process remains relatively new, and stakeholders are still gaining experience and adapting to its complexities.
Looking ahead, ongoing discussions and debates about the patent dance include suggestions for potential improvements, such as increased clarity, more dened timelines, and reduced litigation burdens. These discussions are likely to inuence the future of the patent dance, along with possible legislative and regulatory changes aimed at improving its effectiveness and efciency.
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TABLE 14.2
351
Total Patent Applications and Awarded Patents at the USPTO from 1790 to 2019
Type of Application Total Filed Percentage Approved
Utility 19,774,364 53% Design 870,770 69% Plant 35,161 89% All 21,064,418 54% Foreigners 4,051,671 35%
FIGURE 14.3 Yearly global patent ling 2004– 2018
Additionally, the rising signicance of biosimilars in healthcare and the increasing number of biosimilar approvals globally may prompt further international harmonization efforts and collaborations across jurisdictions to establish consistent approaches to resolving patent disputes.
Numerous patents on biological molecules pose challenges for scientists and technicians involved in developing and producing biopharmaceutical products, hindering the design of manu­facturing procedures. A Freedom- to- Operate Document, as later described, sets the boundaries for technology used in creating a new process. Safeguarding patent rights entails formal actions such as non- disclosure agreements, validating inventions, and timely patent lings. Consequently, scientists and technicians require a basic understanding of intellectual property protection to collaborate effectively with legal teams.
14.3 PATENT LANDSCAPE
This chapter delves into patents, a pivotal aspect of intellectual property. Patents, commonly granted across various legal jurisdictions, primarily delineate invention boundaries concerning novelty, non- obviousness, and utility. Intellectual property encompasses additional components (Figure 14.1).
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TABLE 14.3
Intellectual Property Issues for Scientists
Patent Search Resources
US: http:// www.uspto.gov India: http:// www.ipindia.nic.in/ Europe: http:// www.european- patent- ofce.org Japan: http:// www.jpo.go.jp/ Korea: http:// www.kipo.go.kr Italy: http:// www.info- brevetti.org/ Canada: http:// strategis.ic.gc.ca/ sc_ mrksv/ cipo/ Australia: http:// www.ipaustralia.gov.au/ African region: http:// www.aripo.wipo.net/ New Zealand: http:// www.iponz.govt.nz/ Singapore: http:// www.ipos.gov.sg/ UK: http:// www.ukpats.org.uk WIPO: http:// www.wipo.int/ patentscope/ en/ PCT: Patent Cooperative Treaty http:// www.wto.org/ engl ish/ trato p_ e/ trip s_ e/ trip s_ e.htm http:// www.
pctlearningcenter.org/ Public Patent Foundation http:// www.pubpat.org/ index.html Intellectual Property Owners Association: http:// www.ipo.org/ Global: Espacenet https:// worldwide.espacenet.com/ patent/ China http:// english.sipo.gov.cn Trilateral: the US, Japan, the EU https:// www.trilateral.net/ index ASEAN https:// www.aseanip.org
As of May 2020, over ten million patents had been issued in the US. The initial US patent was granted in 1790 (three patents that year), and the rst patent to a foreigner was not issued until 1836. The rate of patent rejections varies widely based on technology and, interestingly, on the inventor’s US citizenship (Table 14.2).
“Everything that can be invented has been invented.”
Charles H. Duell, United States Patent Ofce Director, telling
President McKinley to abolish the ofce in 1899
The global ling of patents is shown in Figure 14.2 from 2004 to 2018, as reported from 160
patent ofces worldwide.
Table 14.3 lists links to patent search resources around the world. There are over 160 patent
ofces around the world.
14.4 PATENT LAW BASICS
Patents bestow the holder the right to prohibit others from producing, using, selling, or importing a patented invention in the United States (or the patentee’s nation) for a specied period (usu­ally twenty years from the patent application date). Unauthorized actions infringe upon the patent, leading to potential monetary penalties and legal repercussions. The purpose of patent exclusivity is to incentivize innovation by enabling the patent holder to recover research and development costs. Patentees benet from exclusivity by shielding themselves from competition and setting higher prices for patented goods. This protection is particularly crucial for expensive- to- produce commod­ities like pharmaceuticals, which are easily replicable once on the market.
Pharmaceutical patents extend beyond the active ingredient, covering various facets of a medica-
tion or biologic. Among the claims of such “secondary patents” are
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• Methods of employing the pharmaceutical (e.g., to treat a specic ailment); methods of manu­facturing or technologies utilized to create the pharmacological
• Additional substances connected to the active ingredient, such as intermediates; or techniques or technologies for administering the pharmaceutical.
14.4.1 PhaRMaceutical Patenting PRactices
The practices outlined, perceived as legitimate exercises of patent rights by patent holders, are critiqued by opponents as exploitative strategies that misuse the patent system, contrary to Congress’s intentions.
• Moreover, evergreening, also known as patent “layering” or “life- cycle management,” is a process in which some drug rms allegedly attempt to extend their drug patent monopolies by acquiring new patents as old ones expire. It’s noted that a single pharmaceutical product can be covered by numerous patents since different aspects of pharmaceutical goods are patent­able. Critics of evergreening argue that secondary patents typically cover minor alterations or auxiliary components of a pharmaceutical product, effectively extending patent protection beyond the intended term set by Congress. However, defenders contend that additional patents must incorporate signicant new discoveries or improvements to existing products, going through the same patentability and inspection procedures as any other patent.
• Furthermore, “product hopping” describes the process wherein a brand manufacturer leverages its dominant market position to encourage the shift from a drug with expiring patents to a newer version with later- expiring patents. This can involve introducing an extended- release form, a different dosage, altered administration methods, or slight chemical modications to the medication. Marketing campaigns, discounts, and rebates are employed by the brand manufacturer to incentivize this transition, commonly in the form of a “hard switch” or a “soft switch.” Critics of product hopping argue that the new product often provides minimal or no clinical benet, primarily serving to delay generic competition. Conversely, defenders assert that manufacturers have legitimate reasons to develop and patent new products, often resulting in clinical advantages such as fewer side effects or improved patient compliance.
• Moreover, “patent thickets” refer to a brand manufacturer’s strategy of acquiring multiple patents related to a single product, hindering competitors from entering the market or making it too costly and risky to do so. Manufacturers got an average of seventy- one patents on each drug, according to a recent survey of the top twelve drugs by gross US sales. Concerns about patent thickets are prevalent, especially in biologics versus small- molecule chemical medications, partly due to the complexities involved in developing drugs from living cells, offering various options for patenting novel techniques or the use of different mediums for cell growth or dosage changes. Critics argue that patent thickets are formed by patenting minor or secondary innovations, signicantly delaying competition as generics or biosimilars must navigate or challenge each patent, incurring high costs and complexity. Proponents, however, argue that these patents represent advancements encouraged by patent laws, each validated during the patent examination process.
• “Pay- for- Delay” Settlements. When generic (or biosimilar) manufacturers submit shortened applications for products covered by certain unexpired patents, brand manufacturers may commence patent litigation under Hatch- Waxman and the BPCIA procedures. Some brand manufacturers have paid (or otherwise compensated) generic producers in exchange for the generic manufacturers agreeing to postpone market launch. The Supreme Court has ruled that this method, known as “reverse payment” or “pay- for- delay,” may be a legal exercise of patent exclusivity in some cases but may violate antitrust laws in others. Pay- for- delay agreements, according to critics, are used by brand manufacturers to safeguard weak patents
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Intellectual Property Issues for Scientists
from invalidation; yet, because pay- for- delay agreements end the litigation, patent validity and infringement problems remain unanswered. As a result, critics argue that pay- for- delay harms competition by allowing the brand manufacturer to (1) avoid the danger of having its patents invalidated, (2) postpone generic competition from entering the market, and (3) extend the company’s exclusive marketing rights for the specied medicine. Defenders argue that settlements are a reasonable means to decrease the cost and risk of litigation, pointing out that most claims are settled in all areas of law. Furthermore, defenders claim that the case might end with the brand maker winning, thereby barring competition until the patent period expires. Defenders argue that settling the case ensures generic entry before the patent period expires.
• Lastly, despite being discussed separately, opponents argue that these strategies can be combined. For instance, brand manufacturers might use a pay- for- delay settlement along with product hopping to postpone generic entry. By transitioning the market to a new product protected by patent exclusivity, the brand manufacturer can effectively delay competition.
14.4.2 united states Patent eleMents
A patent functions as a license that restricts others from using or practicing an invention. If an inventor’s creation infringes on other inventions even in part, they cannot practice their own inven­tion. For instance, when patenting a new application of an unexpected drug, others are barred from using that drug for the specic treatment the inventor has devised. However, if the drug molecules are safeguarded under a chemical patent, the inventor retains the right to use the drug for the treatment they’ve developed. Essentially, a patent inherently restricts the usage of an invention.
For an invention to be eligible for a patent, it must satisfy certain criteria: uniqueness, non­obviousness, and signicant utility. The term “new and novel” signies that the invention must not have been publicly disclosed anywhere globally more than a year before the patent application’s ling date. Importantly, this one- year grace period isn’t applicable in other countries. Uniqueness and non- obviousness necessitate a creative process in the innovation’s development.
A utility invention, distinct from utility ling in the EU, can fall under various denitions:
• A kit for achieving a useful purpose
• A method or process of synthesis or processing
• A machine
• An article of manufacture
• A matter composition (such as a chemical compound), or
• Enhance any of the above categories.
The specication, a comprehensive description of the invention, also includes instructions for its creation and utilization. It should be articulated in a manner that enables an expert in the eld to replicate and apply the innovation. For current regulations and methods on preparing a patent application, the US Patent Ofce’s URL (https:// mpep.uspto.gov/ RDMS/ MPEP/ curr ent) should be consulted, current as of June 2020, the publication date of this book.
Patents are granted to individuals in the United States, who may subsequently transfer them to others or le patents in other jurisdictions. An individual artistic contribution from each co- inventor is required for at least one argument of the patent, excluding co- authorship on a research paper.
A patent application is a structured document encompassing various elements, following a typ­ical format across most patent ofces globally but may differ in naming of headings and presenta­tion order.
14.4.2.1 Title of Invention
The title of the invention should be concise, limited to 500 characters, and as precise as possible.
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14.4.2.2 Cross- Reference to Related Applications
355
In a non- provisional utility patent application claiming benet from prior- led co- pending applications, a reference to each prior application must be provided in the specication after the title, as per laws 120, 121, or 365(c).
14.4.2.3 Statement Regarding Federally Sponsored Research or Development
If applicable, a declaration concerning rights to innovations developed under federally nanced research grants or intramural programs should be included.
14.4.2.4 Background of the Invention
This segment encompasses a statement about the intended use of the invention, along with a sum­mary of the relevant US patent classication denitions or the subject matter of the invention. This part was previously referred to as “FIELD OF INVENTION” or “TECHNICAL FIELD.” This part should also offer a summary of the information.
14.4.2.5 Brief Summary of the Invention
This section should present the alleged invention’s content, purpose, or general concept in its summarized form. The benets of the invention and how it addresses previously known problems in the specication will be highlighted in the overview. The description is not the same as the abstract.
14.4.2.6 Background of the Invention
Elements to be included in the invention’s background are as follows: (1) Invention’s Field: Describing the art form to which the invention belongs, potentially summarizing relevant patent classi­cation denitions from the United States. This should specically pertain to the subject matter. (2) A description of the relevant art, as well as a data disc where applicable.
14.4.2.7 Brief Description of the Drawing
In cases with accompanying drawings, a numbered list of all gures (e.g., Picture 1A) is presented, accompanied by clear explanations delineating the content of each gure.
14.4.2.8 Detailed Description of the Invention
The description within the specication is distinct from the abstract. Here, a detailed, yet precise explanation of the innovation, its creation, and application is provided. This section should differ­entiate the invention from previous works and other inventions. Biomedical patent descriptions fre­quently integrate experiments involving materials and procedures.
14.4.2.9 Claim or Claims
These arguments serve as the dening features of the invention, forming the legal basis for its defense. The claims or arguments must specically identify and assert the subject matter regarded as the invention. They establish the extent of the patent’s protection.
The most crucial part of a claim include:
• Scope: Each argument should contain one sentence, which can be broad or narrow, but not simultaneously both. Narrow claims provide more specic details than wider ones, potentially enabling legal ownership of various parts of the invention through multiple claims with dis­tinct scopes.
• Characteristics of Signicant Importance: When formulating the claim, consider various factors:
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• Patent examiners assess each claim’s validity, approving or rejecting it based on its merits.
Therefore, the language used in claims often repetitively emphasizes the novelty of the invention.
• The initial phrase in a claim denes the innovation’s category and, in some instances, its
purpose, like “a diagnostic test kit” or “a cancer- treating composition.”
• Claim Evaluation: Each claim is individually assessed by the Patent Examiner. Crafting claims covering various aspects of the invention maximizes coverage. Creating an initial claim and referencing it in narrower scope claims ensures the inclusion of specic inventive features in some or all claims.
14.4.2.10 Abstract of the Disclosure
The abstract summarizes the disclosure found in the introduction, statements, and drawings; the summary must indicate the technological area to which the invention relates, providing a clear understanding of the technical issue, the gist of the invention’s solution to a technical problem, and the primary application or use of the invention.
14.4.2.11 Drawings
If sketches are necessary to understand the subject matter for a patent, they must be included in the patent application. Every feature of the invention, as stated in the claims, must be depicted in the sketches. An application may be considered incomplete if drawings are missing. In each patent drawing, every aspect of the invention listed in the claims must be shown.
14.4.2.12 Oath or Declaration
An oath or declaration must include the following information: (1) the legal name of the inventor or joint inventor executing the oath or declaration; (2) the application to which it is directed; and (3) certication that the person administering the oath or announcing the true inventors is one of the declared or joint inventors. The declaration, a brief document, is required for each inventor to claim ownership of the invention.
14.4.2.13 Sequence Listing (When Necessary)
Amino acid and nucleotide sequences, considered conceptual, must be used if part of the invention. This section must disclose a nucleotide and amino acid sequence, complying with patent rules 1.821,
1.822, 1.823, 1.824, and 1.825 (37 CFR 1.821 Nucleotide and amino acid sequence disclosures in patent applications and WIPO Standard ST.25 (1998)).
14.4.3 tyPes of Patents
Utility patents cover novel methods, formulations, or gadgets, while a design patent protects a new decorative design for a manufactured item. Plant patents provide protection for any asexually reproduced distinct and novel type of plant.
Patents for utility and plant inventions typically last 20 years from the date of issuance. The appropriate maintenance payments must be made on time. Design patents are granted for 14 years from the date of issuance, without ongoing maintenance expenses.
A patent is personal property, allowing the owner to sell, assign, or transfer it at any time. Differences may be arbitrated by competent authorities or jurisdiction in cases of infringement. Sanctions and compensation for the rightful owner may be decided upon identifying a violation.
In the 1990s, the World Trade Organization established a minimal set of rights for all patent owners, including a 20- year patent duration from the application ling date.
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14.4.4 unPatentable inventions
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Natural products that remain unaltered cannot be awarded patents. Natural chemicals, genes, proteins, or unmodied animal or plant species cannot be patented. However, a modied version of a natural object could be copyrighted if the alteration is benecial. Natural ingredients used in useful devices, chemicals, or diagnostic tests may be patented.
In summary, rather than attempting to patent a gene or protein as a composition of matter, patent claims should focus on the non- obvious functional use or altered form of the gene or protein.
Nature’s laws, physical facts, abstract notions, and various artistic works are exempt from patent protection. Such elements are not copyright- protected but can be replicated. Patents will not be granted for technologies considered non- useful, technically impossible (e.g., perpetual motion machines), or objectionable to public morality by the USPTO.
Section 101 of the Patent Act (the “congressional categories”) allows the patenting of any pro­cess, machine, manufacture, or composition of matter. However, certain inventions, such as abstract ideas, natural facts, and natural laws, do not fall into these categories and are considered judicial exceptions.
Since 2012, the Supreme Court has issued three signicant rulings prohibiting the patenting of certain types of inventions. These rulings outlawed patents on medical diagnosis and research (Mayo v. Prometheus), articial DNA characterized by a natural nucleic acid sequence (Association with Molecular Pathology v. Myriad Genetics or Myriad Genetics), and computer hardware/ software used in nancial transactions or other “abstract concepts” (Alice ruling). While some anti- patent factions, notably Silicon Valley and the generic drug industry, have welcomed these decisions (col­lectively known as the “Alice” decisions), organizations reliant on creativity, such as research uni­versities, solo inventors, and biotechnology rms, have criticized them. The Alice trifecta overturns long- standing legal precedent, diverges from international patenting standards, and breaches TRIPS Section 5 Article 27 Part 3. Although Congress has introduced legislation to address the Alice tri­fecta, no tangible progress has been made at the time of this writing.
Molecular proling and customized therapy offer new insights into illness management, pro­viding novel tools and treatments. Although genomic and proteomic research isn’t new, the patent­able knowledge derived from these molecular insights constantly challenges existing health and patent rules.
The economic well- being of every country hinges on advancements in software, medical methods, and business methods. It is widely acknowledged that sustained investment in these elds necessitates fair compensation for innovators. However, the grant of patents for such ideas requires meticulous consideration, and many governments are still deliberating on how to handle such requests.
14.4.5 softWaRe Patents
The basic theory in the United States is that a software invention is patentable if it meets two criteria:
• It’s one- of- a- kind, which means it’s something different.
• It’s connected to a computer, in the sense that the type of hardware platform on which the program runs is dened, ensuring that a patent isn’t awarded for the interpretation of an abstract process but rather for something that necessitates a particular type of physical hard­ware. (As we’ll see, this is a little more open- ended than the machine specications in other countries.)
• However, there are three forms of applications that aren’t patentable:
• An algorithm is not patentable.