2021ArkhipovSV SkvortsovDV(article)

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Table I. Sources of patent information.
Figure 1. Flowchart of literature search according to PRISMA guidelines (31).
Figure 2. Patent distribution by earliest priority date
Figure 3. Nationalities of authors of inventions.
Table II. Risk of bias regarding endoprosthesis applicability.
Table III. Distribution of endoprostheses by the type of design.
Figure 4. Unipolar partial hip endoprosthesis with an artificial LT, which is indicated by the number 36 (30).
Figure 5. Total hip endoprosthesis with an artificial LT, which is indicated by the sing TL (52).
Figure 6. Surface replacement arthroplasty with the native LT, which is indicated by the number 56 (43).
Table IV. Distribution of endoprosthesis designs by the type of friction pair.


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Arkhipov SV, Skvortsov DV. Ligamentum Teres and its Analog in the Hip Endoprosthesis–Necessary or Superfluous? A Systematic Review. MLTJ. 2021:11(2)301-10.


Ligamentum Teres and its Analog in the Hip Endoprosthesis–Necessary or Superfluous? A Systematic Review


Background. Dislocation of hip endoprosthesis remains a common and serious complication of arthroplastic interventions. One of the ways to prevent endoprosthesis dislocation is to integrate a ligamentum teres analog into its design.

Purpose. Reviewing international experience in the design, development and insertion of hip endoprosthesis with the native ligamentum teres or its analog.

Material and methods. A systematic patent and non-patent search and analysis of publications on hip endoprostheses with native ligamentum teres or its artificial analog. The search was done on relevant online platforms and in available libraries.

Results. To date, there are 20 identified patents on endoprosthesis designs with the native ligamentum teres or its analog. Ligamentum teres analogs are proposed to be created using auto-, allo- or xenografts, synthetic materials and metals. We have found two subtotal endoprosthesis with ligamentum teres analogs that are used in clinical practice. The long-term outcomes of such surgeries are not known. There are no commercially available endoprostheses with ligamentum teres analogs.

Conclusions. A ligamentum teres analog integrated into a hip endoprosthesis can help prevent dislocation in the post-operative period. Further theoretical, experimental, biomechanical and clinical studies are needed to develop such endoprostheses for a wider use.

Level of the evidence: 1a


Hip joint, ligamentum capitis femoris, ligamentum teres, endoprosthesis, complication, dislocation of a hip joint prosthesis.



Hip arthroplasty has been widely used since the mid-1940s–early 1950s [1-5]. Soon after the start of a wide use of both cups and the more familiar endoprostheses, however, surgeons began to report cases of their dislocation and subluxation [6-13]. Dislocation after hip replacement is a serious and devastating complication of such surgical interventions [14, 15]. According to literature data, the incidence of dislocation reached 15% in the 1970s-1980s 16. These days, dislocation after primary arthroplasty occurs in 0.2-10% of the cases, more often for prostheses implanted after femoral neck fracture [17-22]. The incidence of dislocation after revision surgeries can reach 25-31% [20, 22, 23]. The risk of dislocation increases with time, regardless the type of surgery and in spite of adequate restoration of soft tissues [24, 25]. At the same time, no relationship has been noted between the dislocation rate, on the one hand, and the patients’ sex, age, diagnosis, and the type of endoprosthesis, on the other [26]. Surgery for dislocation increases the treatment costs and health risks for the patient [15]. This problem has important clinical and social implications and has no clear solution so far.

A technical solution that can apparently prevent dislocation of endoprosthesis head is to make a non-detachable ball-and-socket joint. In 1952, H. G. Van Steenbrugghe was among the first to propose a total endoprosthesis of such a design, with the femoral component fixed by neck [27]. In order to – among other things – reduce the risk of displacement for the acetabulum component, J. Charnley has begun implanting prostheses with a smaller head since 1960, but he still reports a dislocation rate of 1.5% in the early postoperative period [28, 29]. Dislocation is currently prevented by using non-detachable systems. While solving the main problem, however, their use is associated with excessive wear of the friction pair, degradation of the bone-cement and cement-metal bonds, leading to aseptic loosening and a catastrophic failure of the acetabulum component [14]. Even at the early stages of implant arthroplasty, one of the ways for solving the problem of hip implant dislocation was by completing the implant design with an analog of the ligamentum teres (LT). The first hip endoprosthesis of this type was proposed by Leon L. Pellet in 1954 [30].

The use of native LT or its analog as a binding element in the endoprosthesis design has not been fully developed yet. The purpose of this paper was to review relevant international experience, from the concept formation to the development and practical use of hip prostheses with native LT or its analogs, and to understand the prospects for their use and improvement. Currently, there are no systematic reviews on design of hip endoprostheses with the LT or its analogs, registered as projects in PROSPERO and COCHRANE.


This systematic review was done in accordance with the PRISMA (Preferred Reporting Items for Systematic Reviews and Meta-analyses) Guidelines [31]. The Protocol of Systematic Review of the topic in question was prepared and discussed by the team of authors. The Protocol are available upon request from the corresponding author. The basis of our review of international experience in creation and use of hip endoprostheses with native LT or its analog was the study of patent literature from the following electronic databases: Google Patents, Mountain View, CA, USA (https://patents.google.com); European Patent Organization (EPO), Rijswijk, Netherlands (https://worldwide.espacenet.com); World Intellectual Property Organization (WIPO), New York, NY, USA (https://www.wipo.int); Federal Institute of Industrial Property (FIPS), Moscow, Russian Federation (https://new.fips.ru). Since the literature on the subject is quite scanty, we did not limit the search by language or publication status. When examining the identified documents, the authors gave preference to publications in Russian and English, the languages they knew.

The initial patent search was performed in the Google Patents electronic database for the period January 1940—December 2019, inclusive. The eligibility criteria were as follows: a full-text patent describing the design of any hip prosthesis with native LT or its structural analog, or an element similar to native LT in its position and function, located inside the natural hip joint or endoprosthesis and connecting the implant head or the natural femoral head with the acetabulum of the pelvis or the acetabulum part of the endoprosthesis. The search was performed by keywords divided into three groups and connected by the Boolean operators AND and OR as follows: (“ligament” OR “ligamentum” OR “ligamentum teres” OR “cord” OR “band” OR “tape”) AND (“hip” OR “hip joint” OR “acetabulum”) AND (“endoprosthesis” OR “prosthesis” OR “arthroplasty”). The search was complicated by the lack of a special alphanumeric code for endoprosthesis with native LT or its analog in the International Patent Classification (IPC). The closest IPC codes — A61F2002/3233, A61F2002/30688 and A61F2220/0075 — failed to identify the searched documents definitely. The lack of common terminology also contributed to search inaccuracies: e.g., “endoprosthesis” (or “prosthesis” for short) was also termed as “implant”, “device”, “socket” and “artificial joint”. The same was observed for the LT, with its over three dozen synonyms used in the scientific and patent literature: “ligamentum capitis femoris”, “ligamentum teres femoris”, “ligament of head of femur”, etc.

During the preliminary screening, links to patent documents displayed by the search service were manually evaluated based on the eligibility criteria for the title, the content of a brief excerpt from the text, and the accompanying graphic material. Next, each patent document — an abstract or a full text — that supposedly met the eligibility criteria was formally examined by reading the text and viewing the illustrative material. If the document met the eligibility criteria, the related documents were evaluated for compliance with these criteria: patent and non-patent publications cited therein, patent documents that cited this document, as well as similar documents from the lists available on the viewed Internet page (Patent Citations, Non-Patent Citations, Cited By, Similar Documents). Where the initial search failed to find the full-text view of a document, the search switched to the electronic platforms EPO, WIPO and FIPS. These databases were also used to ascertain the dates of the earliest publications of eligible patent documents. The search for eligible non-patent scientific publications mentioned in the related documents cited in patents was done on the Google Scholar electronic platforms (https://scholar.google.com/), PubMed (https://www.ncbi.nlm.nih.gov/pubmed/), and in available libraries.

As the result of our search on these resources, we obtained a cohort of publications that passed the final screening. Of these, we excluded patent abstracts and abstracts of scientific reports. Then, from the number full-text publications, we excluded the descriptions of applications for invention. Next, we identified and excluded duplicates among the remaining patent descriptions evaluated as eligible and non-patent publications discussing the installation of the devices. Thus, we obtained a list of publications for the final analysis.

All the identified sources of patent information are listed in Table I, in the order of their earliest priority. The nationality of patent authors was derived from the two-letter codes of countries, administrative divisions and intergovernmental organizations (WIPO ST.3). The risk of bias regarding the applicability and the rational technical essence of the identified hip prosthesis designs with native LT or its analog was ranked according to the following criteria: 1) commercial devices used in clinical practice; 2) small-batch devices used in clinical practice; 3) individually produced devices used in clinical practice; 4) concepts presented as a text description of the device design and installation method, with explanatory graphic material, never used in clinical practice. The maximum risk of bias rating was assigned to endoprostheses that fell under criterion 4, the minimum, to those under criterion 1. The risk-of-bias assessment took into account the short-term outcomes of arthroplasty described in both patent and non-patent documents. All the identified designs were grouped by the type of endoprosthesis and by the type of friction pair. Where the materials of friction pairs were either not specified, or specified too broadly or not quite clearly, the friction pair was assigned to the most likely type based on the description of the technical essence of design. Next, we analyzed the options for using native LT or its analogs in the hip endoprosthesis design, as well as analogs of the external ligaments of the hip, if available. After finishing the review, we completed the PRISMA 2009 checklist, which is available in the Appendix (Supporting information). This systematic review had no external source of funding.


The systematic search among 9178 patent publications identified 130 patents and applications for inventions dedicated to hip endoprostheses with native LT or its analog. Of these, 26 abstracts, 28 applications for inventions and 56 duplicate patent descriptions were excluded at the stages of final screening and eligibility assessment. Finally, 20 patent documents were included in the systematic review. From the 55 initially identified non-patent sources discussing various aspects of hip arthroplasty with an LT analog, including those describing short-term outcomes of the surgery, we selected two publications in Russian meeting the eligibility criteria [32, 33].

The flowchart for selecting information sources (Figure 1) follows the recommendations of Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) [31]. Eligible patent documents selected for the systematic review are presented in Table I.

Of the 20 patents selected for the systematic review, 15 were in English, 3 in Russian, 1 in German and 1 in Chinese.

The selected patents on hip endoprostheses with native LT or its analogs were grouped by the earliest priority date and presented in (Figure 2). The main numbers of patents coming from 90-th years to current time. Therefore, it is possible to conclude that interest to type of hip endoprostheses with native LT has been grow up from 90-th and still remain at this level.

We identified 40 authors of patents for invention of hip endoprostheses with native LT or its analog, their nationalities are shown in (Figure 3). The dominated activity - 60% of patents was registered at the US, the second place is 17.5% - Denmark, third (10%) Soviet Union. All the others are less than 3%.

The risk of bias regarding the applicability and the rational technical essence of identified hip prosthesis designs with native LT or its analogs is ranked in Table II. It is no commercial endoprostheses with LT in this time. A few construction were applied at clinics, however, results are not clear.

The identified designs of endoprostheses with native LT or its analogs were grouped by type and presented in Table III (Figure 4-6).

The friction pair characteristics and combination of materials are of great importance for the endoprosthesis functioning. The designs of the reviewed hip prostheses with native LT or its analog were grouped by friction pair materials and presented in Table IV.


Most of the hip endoprosthesis designs with native LT or its analog that passed the final screening date back to the first decade of the 21st century. That was the period of extensive introduction of methods for hip arthroscopy and a growing use of magnetic resonance and computed tomography, and the number of publications mentioning the LT increased significantly. Another possible explanation for the fact is that the growing number of hip replacements was associated with the growing number of implant dislocations. This, again, stimulated the efforts to improve anti-luxation prostheses.

Based on the risk of bias regarding the applicability criterion, most of the proposed devices have the maximum risk rating of 4. We have failed to identify any commercially available endoprostheses with native LT or its analog, and hence any devices with the minimum risk rating of 1. Only two subtotal hip endoprostheses with an LT analog are known to have been used in clinical practice. The first one — a subtotal endoprosthesis designed by G.E. Dudko — has been implanted since 1984, and its risk-of-bias can be rated as 2 [35]. The second one — proposed by V.A. Neverov and V.A. Shilnikov — has been used since 1990 and is assigned a risk-of-bias rating of 3 [37]. The short-term outcomes of their medical use were assessed as satisfactory [32, 33, 35, 37]. We have not succeeded in finding any long-term outcomes of these surgical interventions in the literature.

Scanty publications about the practical use of hip endoprostheses with an LT analog do not allow any firm conclusions about their benefits and drawbacks. Of all known endoprosthesis designs that propose the use of native LT or its analog, 18 have never been implanted and there are no available reports on their laboratory and clinical trials. The endoprostheses with native LT and its analog included in the review fall under the existing classification of implants for hip arthroplasty. However, the specific nature of patent documentation allowed the authors to claim their proposed technical solution as belonging to several types and, in some cases, not to specify the type of design at all. We classified 11 of the identified endoprostheses as total hip endoprostheses (see Table III), 5 as unipolar partial hip endoprostheses (subtotal endoprosthesis, subtotal hip prosthesis system), 4 as surface replacement arthroplasty (mould arthroplasty), 2 as partial endoprostheses, and 1 as a spacer prosthesis. We failed to identify any bipolar partial hip endoprosthesis, revision endoprosthesis or tumor endoprosthesis (e.g., pelvis tumor-prosthesis) with an LT analog.

Some of the identified devices (see Table III) for surface replacement arthroplasty, partial acetabular rim arthroplasty and spacer endoprosthesis are claimed as intended for retainment of the LT [41, 43, 46, 50]. These endoprostheses repeat the form of a part of the femoral head articular surface or the lunate surface of the acetabulum and, generally, have a horseshoe shape. However, there are some similar devices, of a similar shape (C-shaped, U-shaped, lunate), whose description has no mentioning of the LT. The technical idea behind the C-shape is to help preserve the fat pad in the acetabular fossa, preserve its blood supply, and ensure normal functioning and natural lubrication of the joint [53, 54].

Most of the proposed hip endoprostheses with native LT or its analog are supposed to use a metal head, less often, a polymer one, and quite rarely, a ceramic one (see Table IV). Some authors propose various embodiments of friction pair, which do not exclude the use of native cartilage for one of the components [45, 46, 50] Although some inventions do not specify the type of friction pair, it can be assumed from the context that their proposed endoprosthesis has a metal head [30, 36, 38, 39, 49, 51, 52]. Yet other designs do not clearly state it either, but one can surmise that the endoprosthesis head or the acetabular liner is made of a polymer material [35, 48, 52]. We have found design embodiments with a non-detachable articulating system in the form of an industrially manufactured monobloc [42, 47, 49]. In some endoprostheses, the articulation system is supposed to be enclosed by an analog of the joint capsule: a cuff or a cover made of a synthetic material [38]. In rare cases, it is proposed to use a lubricant in the friction pair [43, 47].

Some endoprostheses use native LT, others, a modified one, and still others replace it by a specially designed analog. It is proposed that healthy native LT should be retained in surface replacement arthroplasty, spacer prosthetics and in total hip arthroplasty [41, 43, 46, 48, 50]. If the native LT is not healthy, it can be reinforced with an artificial structure [48]. As noted in the device descriptions, an LT can be reconstructed using biological tissues (auto-, allo- or xenografts), polymer materials, and combination thereof [35-37, 39, 42, 44, 45]. There are known proposals to make LT analogs of metal, in the form of rods, chains or cords [30, 34, 38]. Some designs provide LT analogs with a protective coating 45, 47, others, with a coating that carries a drug, e.g. an antibiotic [52]. It has also been proposed to make an external deformable coating for LT analog and put antibiotics inside [45]. Assuming that an LT analog can be damaged during its use, various methods for its repair are discussed [47].

Some endoprostheses are proposed to be supplemented with artificial analogs of external ligaments [39, 44, 48]. Here, we should note that there is a method for creating artificial external ligaments to prevent post-arthroplasty dislocation. The method was tested in practice and proved useful [55-60]. The above-said supports the feasibility of supplementing hip prosthesis with native LT or its analog, analogs of external ligaments, and retaining them whenever possible during arthroplasty. The most tricky and highly specialized aspect of creating endoprosthesis with an LT analog is to provide conditions for the element functioning, proper positioning of its attachment areas, its geometric and mechanical properties. The lack of fundamental experimental and clinical studies of these issues makes it impossible to evaluate properly all data presented in the reviewed sources.


Among patents for inventions, we have identified 20 descriptions of various hip endoprosthesis systems which include native LT or its analog. At the same time, there is an apparent new trend in arthroplasty – creation of endoprostheses that are structurally similar to the natural joint and include the ligamentous apparatus as their structural component. There is need for further studies of mechanical impacts on an LT analog and its attachment area, the nature of its connection with the other parts of the endoprosthesis. These issues are among the least developed in this field.

Prevention of post-operative dislocations requires developing new surgical approaches and methods for placing an endoprosthesis while retaining or adequately reconstructing the natural ligamentous apparatus. The variety of the already available designs demonstrates multiple potential solutions to the pressing problems of arthroplasty, on the one hand, and the scarcity of basic data, on the other.

Creating such endoprostheses seems quite realistic. However, it requires extensive preliminary research and development efforts. These devices can likely make a line of implants for staged arthroplasty, from simple and small ones, requiring minimal removal of native tissues, to complex and massive reconstructive and oncologic endoprostheses. The common distinguishing feature of the new-generation endoprostheses should be the ideology of retaining or reconstructing the ligamentous apparatus of the hip joint.


This work submits to the ethical standards of the Muscles, Ligaments and Tendons Journal [61]. All data and material are available upon request from the corresponding author.


S.V.A – design of investigation, collecting the data and it’s systematization, analysis the data, writing a draft; D.V.S – conception and design of investigation, system analysis the data, revising the text; S.V.A & D.V.S – writing text; all authors discussed the results and commented on the manuscript at all stages.


The authors declare that they have no conflict of interest.


Figure 1. Flowchart of literature search according to PRISMA guidelines (31).

Figure 2. Patent distribution by earliest priority date

Figure 3. Nationalities of authors of inventions.

Figure 4. Unipolar partial hip endoprosthesis with an artificial LT, which is indicated by the number 36 (30).

Figure 5. Total hip endoprosthesis with an artificial LT, which is indicated by the sing TL (52).

Figure 6. Surface replacement arthroplasty with the native LT, which is indicated by the number 56 (43).


Table I. Sources of patent information.

Table II. Risk of bias regarding endoprosthesis applicability.

Table III. Distribution of endoprostheses by the type of design.

Table IV. Distribution of endoprosthesis designs by the type of friction pair.


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Authors & Affiliations

  • Authors:

S.V. Arkhipov (1, 2)

D.V. Skvortsov (1)

CORRESPONDING AUTHOR: Sergey V. Arkhipov, E-mail: archipovsv@gmail.com

  • Organization:

1. Laboratory of Clinical Physiology and Biomechanics, Federal State Budgetary Institution “N.N. Priorov National Medical Research Center of Traumatology and Orthopaedics” of the Ministry of Health of the Russian Federation, Moscow, Russia1.

2. MEDSI Group of Companies, Surgical Department, Solyanka str. 12/1, 109240, Moscow, Russia


  • В публикации представлен обзор патентов на эндопротезы тазобедренного сустава с аналогом ligamentum capitis femoris (LCF).

External links

Arkhipov SV, Skvortsov DV. Ligamentum Teres and its Analog in the Hip Endoprosthesis–Necessary or Superfluous? A Systematic Review. MLTJ. 2021:11(2)301-10. 2021ArkhipovSV_SkvortsovDV 2021ArkhipovSV_SkvortsovDV MLTJ doi:10.32098/mltj.02.2021.13

Internal links


Author & Editor: Sergey V Arkhipov

LCF in endoprosthesis. Review. Pt.1

LCF in endoprosthesis. Review. Pt.2

LCF in endoprosthesis. Review. Pt.3

LCF in endoprosthesis. Review. Pt.4

LCF in endoprosthesis. Review. Pt.5

LCF in endoprosthesis. Review. Pt.6

Endoprosthesis with LCF. Personality

Introduction to LCF reconstruction

Biomechanical functions. Review

General classification LCF


Open reconstruction. Catalog

Arthroscopic reconstruction. Catalog