Patent Grant
11197759
The present invention relates in general to valve repair. More specifically, the present invention relates to repair of a mitral valve of a patient.
Mitral regurgitation (MR), mitral insufficiency or mitral incompetence is a disorder of the heart in which the mitral, valve does not close properly when the heart pumps out blood. It is the abnormal leaking of blood from the left ventricle, through the mitral valve, and into the left atrium, when the left ventricle contracts, i.e. there is regurgitation of blood back into the left atrium. MR is the most common form of valvular heart disease.
In functional mitral valve regurgitation (FMR), otherwise known as Secondary mitral regurgitation is characterized as the abnormal function of anatomically normal valve, i.e., the papillary muscles, chordae, and valve leaflets are otherwise normal. Regurgitation, the result of incomplete closure of normal leaflets occurs in a quarter of patients after myocardial infarction and up to 50% of those with heart failure.
FMR can be either due to ischemia and any cause of dilated left ventricle including, annular enlargement secondary to left ventricular dilatation, or papillary muscle displacement due to left ventricular remodeling, which results in tethering and excess tenting of the mitral valve leaflets.
Severe FMR is indicative of poor hemodynamics and typically a bad prognosis for the patient.
In some applications of the present invention, apparatus is provided comprising an implant structure comprising an adjustable annuloplasty ring structure coupled to at least first and second adjusting mechanisms, each comprising a respective rotatable structure. At least a portion of the annuloplasty ring structure comprises a flexible, longitudinally-compressible segment (e.g., coiled structures, stent-like struts, and/or a braided mesh). The annuloplasty structure is shaped to define a flexible, tubular body portion that is shaped so as to define a lumen thereof that houses at least one flexible longitudinal contracting member. The at least one flexible longitudinal contracting member is coupled to the first adjusting mechanism at a first portion of the flexible longitudinal contracting member. A second portion of the flexible longitudinal contracting member is coupled to a portion of the tubular body portion. The first adjusting mechanism is configured to adjust a perimeter of the annuloplasty ring structure by adjusting a degree of tension of the flexible member housed within the lumen, of the annuloplasty structure. For example, the first adjusting mechanism is configured to contract the ring structure in response to rotation in a first rotational direction of the rotational structure of the first adjusting mechanism. The first adjusting mechanism is typically aligned with the tubular body portion.
Typically, the annuloplasty structure is configured to be implanted along a native annulus of an atrioventricular valve of a patient.
For some applications of the present invention, the second adjusting mechanism is coupled to an outer surface of the tubular body portion. The second adjusting mechanism is coupled to a first portion of a flexible longitudinal tension member. The flexible longitudinal tension member is configured to pass from the annuloplasty ring structure on the annulus of the valve of and into a ventricle. A second portion of the flexible longitudinal tension member is coupled to a tissue-engaging element configured to engage cardiac tissue in a vicinity of the ventricle (e.g., a portion of papillary muscle tissue, a portion of tissue of an inner wall of the ventricle, or a portion of tissue of an outer wall of the ventricle). For some applications, the tissue-engaging element comprises a sharp portion for penetrating the cardiac tissue. For some applications, the tissue-engaging element comprises a planar element abutting against tissue of the patient. Typically, the second portion of the flexible longitudinal tension member is configured to be coupled to a papillary muscle of the patient. The second adjusting mechanism is configured to adjust a degree of tension of the flexible longitudinal tension member in a manner sufficient to (a) adjust a position of the papillary muscle, (b) adjust a degree of distension of the ventricular wall, and/or (c) have the flexible longitudinal tension member function as an artificial chordae tendineae. For applications in which the position of the papillary muscle is adjusted such positioning typically provides therapy to the patient.
For some applications of the present invention, an annuloplasty ring structure comprises two or more adjusting mechanisms configured to shape the annuloplasty ring structure into a desired shape. For example, the two or more adjusting mechanisms function, upon actuation thereof, to form the adjustable ring into a saddle shape. Alternatively or additionally, the two or more adjusting mechanisms function, upon actuation thereof, to draw together opposing portions of the ring.
Typically, the annuloplasty ring structures described herein, the adjusting mechanisms, and the flexible longitudinal members are advanced and implanted in an open-heart procedure. For some applications, devices described herein may be implanted using a minimally-invasive or percutaneous transcatheter procedure.
Methods for delivery and use of the invention are also described.
There is therefore provided, in accordance with an application of the present invention, apparatus for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the apparatus including:
In an application:
In an application, the apparatus further includes a plurality of sutures, each suture of the plurality of sutures being configured to be fastened to a respective location along a circumference of an annulus of a mitral valve of the patient, the plurality of sutures being configured to facilitate advancement of the annuloplasty structure toward the annulus.
In an application, the annuloplasty structure includes a coiled structure having a lumen.
In an application, the annuloplasty structure includes a partial annuloplasty ring.
In an application, the annuloplasty structure includes a full annuloplasty ring.
In an application, the annuloplasty structure is coated with polytetrafluoroethylene.
In an application, the annuloplasty structure has a first end and a second end, and a longitudinal axis therebetween, and the second adjusting mechanism is movable along the longitudinal axis of the annuloplasty structure.
In on application, the annuloplasty structure includes a body portion that defines a lumen therethrough, and the annuloplasty structure further includes a flexible longitudinal contracting member, having a first end portion, a second end portion, and a middle portion between the first and second end portions, at least one of the end portions being coupled to the first adjusting mechanism, and the middle portion being disposed within the lumen of the body portion.
In an application, the first adjusting mechanism is configured to reversibly adjust the perimeter of the annuloplasty structure, and the second adjusting mechanism is configured to reversibly adjust the distance.
In an application, the second adjusting mechanism is configured to adjust the distance between the second adjusting mechanism and the second end portion of the at least one longitudinal flexible member, independently of the adjusting of the perimeter of the annuloplasty structure by the first adjusting mechanism.
In an application:
In an application:
In an application, the third adjusting mechanism is configured to adjust the distance between the third adjusting mechanism and the second end portion of the second longitudinal flexible member, independently of the adjustment, by the second adjusting mechanism, of the distance between the second adjusting mechanism and the second end portion of the first longitudinal flexible member.
In an application, the first adjusting mechanism includes a first rotatable adjusting mechanism, and the second adjusting mechanism includes a second rotatable adjusting mechanism.
In an application, the first rotatable adjusting mechanism and the second rotatable adjusting mechanism are both rotatable bidirectionally.
In an application, the second rotatable adjusting mechanism includes a spool, and the spool is configured to pull the tissue toward the annuloplasty structure, via the longitudinal flexible member, responsively to rotation of the spool.
In an application, the apparatus further includes a rotation tool, configured to rotate the first rotatable adjusting mechanism.
In an application, the rotation tool includes an elongate rotation tool, configured to extend from outside the patient, to the first rotatable adjusting mechanism.
In an application, the rotation tool is configured to facilitate adjustment of the first adjusting mechanism while the heart of the patient is beating.
In an application, the rotation tool includes a first rotation tool, and the apparatus further includes a second rotation tool, configured to rotate the second rotatable adjusting mechanism.
In an application, at least the first adjusting mechanism includes a locking mechanism:
In an application, the first rotation tool is configured to intracorporeally move the first rotatable adjusting mechanism into the unlocked configuration thereof.
In an application, the tissue includes papillary muscle tissue of the patient, and apparatus is configured to relocate the papillary muscle tissue, by pulling the papillary muscle tissue toward the annuloplasty structure.
In an application:
In an application, the longitudinal flexible member is configured to perform a therapy by relocating the patient's papillary muscle tissue.
In an application, the annuloplasty structure is configured to be implanted at an annulus of a mitral valve of the patient, and the apparatus is configured to be transcatheterally advanced toward the annulus.
In an application, the apparatus is configured to be transluminally advanced toward the annulus.
In an application, the second end portion of the longitudinal flexible member includes a tissue-coupling element.
In an application, the tissue-coupling element includes an anchor having at least one sharp portion.
There is further provided, in accordance with an application of the present invention, apparatus for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the apparatus including:
In an application, the annuloplasty structure has a first end and a second end, and a longitudinal axis therebetween, and the second adjusting mechanism is movable along the longitudinal axis of the annuloplasty structure.
In an application, the annuloplasty structure includes a body portion that defines a lumen therethrough, and the annuloplasty structure further includes a flexible longitudinal contracting member, having a first end portion, a second end portion, and a middle portion between the first and second end portions, at least one of the end portions being coupled to the first, adjusting mechanism, and the middle portion being disposed within the lumen of the body portion.
In an application, the annuloplasty structure includes a partial annuloplasty ring.
In an application, the annuloplasty structure includes a full annuloplasty ring.
In an application, the annuloplasty structure is coated with polytetrafluoroethylene.
In an application:
In an application, the apparatus further includes a plurality of sutures, each suture of the plurality of sutures being configured to be fastened to a respective location along a circumference of an annulus of a mitral valve of the patient, the plurality of sutures being configured to facilitate advancement of the annuloplasty structure toward the annulus.
In an application, the annuloplasty structure includes a coiled structure having a lumen.
In an application, the second adjusting mechanism is configured to reversibly adjust the distance between the second adjusting mechanism and the second end portion of the at least one longitudinal flexible member, independently of the reversible adjusting of the perimeter of the annuloplasty structure by the first adjusting mechanism.
In an application:
In an application:
In an application, the third adjusting mechanism is configured to reversibly adjust the distance between the third adjusting mechanism and the second end portion of the second longitudinal flexible member, independently of the reversible adjustment, by the second adjusting mechanism, of the distance between the second adjusting mechanism and the second end portion of the first longitudinal flexible member.
In an application, the first adjusting mechanism includes a first rotatable adjusting mechanism, and the second adjusting mechanism includes a second rotatable adjusting mechanism.
In an application, the first rotatable adjusting mechanism and the second rotatable adjusting mechanism are both rotatable bidirectionally.
In an application, the second rotatable adjusting mechanism includes a spool, and the spool is configured to pull the tissue toward the annuloplasty structure, via the longitudinal flexible member, responsively to rotation of the spool.
In an application, the apparatus further includes a rotation tool, configured to rotate the first rotatable adjusting mechanism.
In an application, the rotation tool includes an elongate rotation tool, configured to extend from outside the patient, to the first rotatable adjusting mechanism.
In an application, the rotation tool is configured to facilitate reversible adjustment of the first adjusting mechanism while the heart of the patient is beating.
In an application, the rotation tool includes a first rotation tool, and the apparatus further includes a second rotation tool, configured to rotate the second rotatable adjusting mechanism.
In an application, at least the first adjusting mechanism includes a locking mechanism:
In an application, the first rotation tool is configured to intracorporeally move the first rotatable adjusting mechanism into the unlocked configuration thereof.
In an application, the tissue includes papillary muscle tissue of the patient, and apparatus is configured to relocate the papillary muscle tissue, by pulling the papillary muscle tissue toward the annuloplasty structure.
In an application:
In an application, the longitudinal flexible member is configured to perform a therapy by relocating the patient's papillary muscle tissue.
In an application, the annuloplasty structure is configured to be implanted at an annulus of a mitral valve of the patient, and the apparatus is configured to be transcatheterally advanced toward the annulus.
In an application, the apparatus is configured to be transluminally advanced toward the annulus.
In an application, the second end portion of the longitudinal flexible member includes a tissue-coupling element.
In an application, the tissue-coupling element includes an anchor having at least one sharp portion.
There is further provided, in accordance with an application of the present invention, a method for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the method including:
In an application, the annuloplasty structure has a first end and a second end, and a longitudinal axis therebetween, and sliding the second adjusting mechanism includes sliding the second adjusting mechanism along the longitudinal axis of the annuloplasty structure.
In an application:
In an application, coupling the annuloplasty structure to the annulus includes coupling the annuloplasty structure to an annulus of a mitral valve of the patient such that the at least second adjusting mechanism is disposed in a vicinity of a fibrous trigone adjacent to the mitral valve.
In an application, the method further includes receiving information indicative of blood flow of the patent, subsequently to the adjusting of the first distance, and prior to the adjusting of the second distance.
In an application, the method further includes receiving information indicative of blood flow in the heart of the patient, subsequently to the adjusting of the dimension of the annulus, and prior to the adjusting of the first distance.
In an application, at least one of: (1) the adjusting of the dimension of the annulus, (2) the adjusting of the first distance, and (3) the adjusting of the second distance, include adjusting while the heart is beating.
In an application, adjusting the first adjusting mechanism includes adjusting the first adjusting mechanism while the heart of the patient is beating.
In an application, adjusting the at least second adjusting mechanism includes adjusting the at least second adjusting mechanism while the heart of the patient is beating.
In an application, coupling the second end portion to the first portion of the tissue of the ventricle includes coupling the second end portion to tissue of a papillary muscle of the patient.
In an application, the method further includes adjusting a dimension of the annulus by adjusting the first adjusting mechanism.
In an application, the method further includes adjusting a distance between the annulus and the tissue, by adjusting the second adjusting mechanism.
In an application, the method further includes adjusting a dimension of the annulus by adjusting the first adjusting mechanism, and adjusting a distance between the annulus and the tissue independently of the adjustment of the dimension of the annulus, by adjusting the second adjusting mechanism independently of the adjustment of the first adjusting mechanism.
In an application, coupling the second end portion to the tissue includes rotating an anchor coupled to the second end portion.
In an application, at least one selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes rotating a rotatable adjusting mechanism.
In an application, at least, one action selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes reversibly adjusting.
In an application, coupling the annuloplasty structure to the annulus includes coupling a partial annuloplasty ring to the annulus.
In an application, coupling the annuloplasty structure to the annulus includes coupling a full annuloplasty ring to the annulus.
In an application, at least one action selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes adjusting using a rotation tool.
In an application, using the rotation tool includes using an elongate rotation tool that extends from outside the patient, to the apparatus.
In an application, the method further includes, prior to adjusting, performing at least one action selected from the group consisting of unlocking the first adjustment mechanism using the rotation tool, and unlocking the second adjustment mechanism using the rotation tool.
In an application, the method further includes transcatheterally advancing the annuloplasty structure to the native valve.
In an application, transcatheterally advancing the annuloplasty structure to the native valve includes transluminally advancing the annuloplasty structure to the native valve.
In an application, the annuloplasty structure is coupled to a third adjusting mechanism that is coupled to a first end portion of a second longitudinal flexible member, and the method further includes coupling a second end portion of the second longitudinal member to a second portion of the tissue of the ventricle.
In an application, the method further includes adjusting a distance between the annuloplasty structure and the second portion of the tissue by adjusting the third adjusting mechanism.
There is further provided, in accordance with an application of the present invention, a method for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the method including:
In an application:
There is further provided, in accordance with an application of the present invention, a method for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the method including:
In an application, the annuloplasty structure has a first end and a second end, and a longitudinal axis therebetween, and sliding the second adjusting mechanism includes sliding the second adjusting mechanism along the longitudinal axis of the annuloplasty structure.
In an application:
In an application, coupling the annuloplasty structure to the annulus includes coupling the annuloplasty structure to an annulus of a mitral valve of the patient such that the at least second adjusting mechanism is disposed in a vicinity of a fibrous trigone adjacent to the mitral valve.
In an application, coupling the annuloplasty structure to the annulus includes coupling a partial annuloplasty ring to the annulus.
In an application, coupling the annuloplasty structure to the annulus includes coupling a full annuloplasty ring to the annulus.
In an application, adjusting the first adjusting mechanism includes adjusting the first adjusting mechanism while the heart of the patient is beating.
In an application, adjusting the at least second adjusting mechanism includes adjusting the at least second adjusting mechanism while the heart of the patient is beating.
In an application, coupling the second end portion to the first portion of the tissue of the ventricle includes coupling the second end portion to tissue of a papillary muscle of the patient.
In an application, the method further includes adjusting a dimension of the annulus by adjusting the first adjusting mechanism.
In an application, the method further includes adjusting a distance between the annulus and the tissue, by adjusting the second adjusting mechanism.
In an application, the method further includes adjusting a dimension of the annulus by adjusting the first adjusting mechanism, and adjusting a distance between the annulus and the tissue independently of the adjustment of the dimension of the annulus, by adjusting the second adjusting mechanism independently of the adjustment of the first adjusting mechanism.
In an application, coupling the second end portion to the tissue includes rotating an anchor coupled to the second end portion.
In an application, at least one selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes rotating a rotatable adjusting mechanism.
In an application, at least one action selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes reversibly adjusting.
In an application, at least one action selected from the group consisting of adjusting the first adjusting mechanism and adjusting the second adjusting mechanism, includes adjusting using a rotation tool.
In an application, using the rotation tool includes using an elongate rotation tool that extends from outside the patient, to the apparatus.
In an application, the method further includes, prior to adjusting, performing at least one action selected from the group consisting of unlocking the first adjustment mechanism using the rotation tool, and unlocking the second adjustment mechanism using the rotation tool.
In an application, the method further includes transcatheterally advancing the annuloplasty structure to the native valve.
In an application, transcatheterally advancing the annuloplasty structure to the native valve includes transluminally advancing the annuloplasty structure to the native valve.
In an application, the annuloplasty structure is coupled to a third adjusting mechanism that is coupled to a first end portion of a second longitudinal flexible member, and the method further includes coupling a second end portion of the second longitudinal member to a second portion of the tissue of the ventricle.
In an application, the method further includes adjusting a distance between the annuloplasty structure and the second portion of the tissue by adjusting the third adjusting mechanism.
There is further provided, in accordance with an application of the present invention, apparatus for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the apparatus including:
In an application, the annuloplasty structure includes a partial annuloplasty ring.
In an application, the annuloplasty structure includes a full annuloplasty ring.
In an application, the annuloplasty structure is coated with polytetrafluoroethylene.
In an application:
In an application, the apparatus further includes a plurality of sutures, each suture of the plurality of sutures being configured to be fastened to a respective location along a circumference of an annulus of a mitral valve of the patient, the plurality of sutures being configured to facilitate advancement of the annuloplasty structure toward the annulus.
In an application, the annuloplasty structure includes a coiled structure having a lumen.
In an application, the annuloplasty structure has a first end and a second end, and a longitudinal axis therebetween, and the second adjusting mechanism is movable along the longitudinal axis of the annuloplasty structure.
In an application, the annuloplasty structure includes a body portion that defines a lumen therethrough, and the annuloplasty structure further includes a flexible longitudinal contracting member, having a first end portion, a second end portion, and a middle portion between the first and second end portions, at least one of the end portions being coupled to the first adjusting mechanism, and the middle portion being disposed within the lumen of the body portion.
In an application, the first adjusting mechanism is movably coupled to the annuloplasty structure.
In an application, the first adjusting mechanism is configured to reversibly adjust the perimeter of the annuloplasty structure, and the second adjusting mechanism is configured to reversibly adjust the distance.
In an application, the second adjusting mechanism is configured to adjust the distance between the second adjusting mechanism and the second end portion of the at least one longitudinal flexible member, independently of the adjusting of the perimeter of the annuloplasty structure by the first adjusting mechanism.
In an application:
In an application:
In an application, the third adjusting mechanism is configured to adjust the distance between the third adjusting mechanism and the second end portion of the second longitudinal flexible member, independently of the adjustment, by the second adjusting mechanism, of the distance between the second adjusting mechanism and the second end portion of the first longitudinal flexible member.
In an application, the first adjusting mechanism includes a first rotatable adjusting mechanism, and the second adjusting mechanism includes a second rotatable adjusting mechanism.
In an application, the first rotatable adjusting mechanism and the second rotatable adjusting mechanism are both rotatable bidirectionally.
In an application, the second rotatable adjusting mechanism includes a spool, and the spool is configured to pull the tissue toward the annuloplasty structure, via the longitudinal flexible member, responsively to rotation of the spool.
In an application, the apparatus further includes a rotation tool, configured to rotate the first rotatable adjusting mechanism.
In an application, the rotation tool includes an elongate rotation tool, configured to extend from outside the patient, to the first rotatable adjusting mechanism.
In an application, the rotation tool is configured to facilitate adjustment of the first adjusting mechanism while the heart of the patient is beating.
In an application, the rotation tool includes a first rotation tool, and the apparatus further includes a second rotation tool, configured to rotate the second rotatable adjusting mechanism.
In an application, the first rotation tool is configured to intracorporeally move the first rotatable adjusting mechanism into the unlocked configuration thereof, and the second rotation tool is configured to intracorporeally move the second rotatable adjusting mechanism into the unlocked configuration thereof.
In an application, the tissue includes papillary muscle tissue of the patient, and apparatus is configured to relocate the papillary muscle tissue, by pulling the papillary muscle tissue toward the annuloplasty structure.
In an application:
In an application, the longitudinal flexible member is configured to perform a therapy by relocating the patient's papillary muscle tissue.
In an application, the annuloplasty structure is configured to be implanted at an annulus of a mitral valve of the patient, and the apparatus is configured to be transcatheterally advanced toward the annulus.
In an application, the apparatus is configured to be transluminally advanced toward the annulus.
In an application, the second end portion of the longitudinal flexible member includes a tissue-coupling element.
In an application, the tissue-coupling element includes an anchor having at least one sharp portion.
There is further provided, in accordance with an application of the present invention, apparatus for use with a native valve of a heart of a patient, the native valve having a valve annulus, and the heart having a ventricle, the apparatus including:
In an application:
In an application, at least one of the length-adjusting mechanisms is movable around at least part of the perimeter of the annuloplasty structure.
In an application, the annuloplasty structure includes a body portion that defines a lumen therethrough, and the annuloplasty structure further includes a flexible longitudinal contracting member, having a first end portion, a second end portion, and a middle portion between the first and second end portions, at least one of the end portions being coupled to the first adjusting mechanism, and the middle portion being disposed within the lumen of the body portion.
There is further provided, in accordance with an application of the present invention, a method, including:
In an application, coupling the longitudinal flexible member to the portion of tissue includes coupling the longitudinal flexible member to papillary muscle tissue.
In an application, the annuloplasty structure includes two adjusting mechanisms, each adjusting mechanism configured to relocate respective portions of tissue, and coupling the annuloplasty structure to the annulus includes:
In an application, the method further includes transcatheterally advancing the annuloplasty structure to the annulus.
In an application, coupling the annuloplasty structure to the annulus includes coupling the annuloplasty structure to the annulus during open heart surgery.
In an application, the method further includes:
The present invention will be more fully understood from the following detailed description of embodiments thereof, taken together with the drawings, in which:
Reference is now made to
Flexible tension members 60a and 60b comprise a wire, a ribbon, a rope, or a band, comprising a flexible metal. Typically, flexible tension members 60a and 60b comprise a flexible and/or superelastic material, e.g., nitinol, polyester, stainless steel, or cobalt chrome. In some applications of the present invention, flexible tension members 60a and 60b each comprise a braided polyester suture (e.g., Ti-Cron (™)). In some applications of the present invention, flexible contracting members 60a and 60b are coated with polytetrafluoroethylene (PTFE). In some applications of the present invention, flexible tension member 60a and 60b each comprise a plurality of wires that are intertwined to form a rope structure.
Typically, but not necessarily, each of adjusting mechanisms 240a and 240b is coupled to a respective longitudinal guide member 86a and 86b. Distal end portions of each guide member 86a and 86b are coupled to respective portions of mechanisms 240a and 240b and facilitate guiding along members 86a and 86b of a rotational tool toward the rotatable structures of mechanisms 240a and 240b.
The annuloplasty structure of implant structure 122 is shaped to define a flexible, tubular body portion 24 that is shaped so as to define a lumen along a longitudinal axis of structure 122 that houses at least part of at least one flexible longitudinal contracting member 30 (e.g., a middle portion of member 30). At least a portion, e.g., the entirety, of body portion 24 comprises a compressible material (e.g., a coiled element 12), as shown by way of illustration and not limitation. For example, body portion 24 may comprise stent-like struts, or a braided mesh (independently of coiled portion 12). Typically, coiled element 12 is surrounded by a braided mesh 10.
Typically, body portion 24 comprises a flexible biocompatible material, e.g., nitinol, stainless steel, platinum iridium, titanium, expanded polytetrafluoroethylene (ePTFE), or cobalt chrome. In some applications of the present invention, body portion 24 is coated with PTFE (Polytetrafluoroethylene). In other applications of the present invention, body portion 24 comprises accordion-like compressible structures which facilitate proper cinching of the annulus when structure 122 is contracted. Body portion 24, when compressed, e.g., typically along a longitudinal axis of structure 122, enables portions of annuloplasty structure 122 to contract and independently conform to the configuration of the annulus of the mitral valve of a given subject. Thus, the compressible element of body portion 24 facilitates contraction of the annulus in response to contraction of structure 122.
The annuloplasty structure of implant structure 122 comprises a flexible-longitudinal-contracting-member-adjusting-mechanism 40 disposed within a housing 44 and coupled to contracting member 30 (as described hereinbelow with reference to
Adjusting mechanisms 210a and 240b are coupled to an outer surface of body portion 24, as shown. Typically, mechanisms 240a and 240b are coupled via sutures or any other mechanical coupling, as described hereinbelow with reference to
Flexible contracting member 30 comprises a wire, a ribbon, a rope, or a band, comprising a flexible metal. Flexible contracting member 30 is coupled at a first end portion thereof to flexible-longitudinal-contracting-member-adjusting-mechanism 40 which is coupled to a first end 21 of body portion 24. A second end portion of flexible contracting member 30 is coupled to a second end 23 of body portion 24. Typically, during a resting state of structure 122, flexible contracting member 30 (e.g., the middle portion thereof) is disposed in parallel with the longitudinal axis of structure 122. Flexible member 30, for some applications does not comprise a continuous band that runs through the entire lumen of the annuloplasty devices described herein, and flexible member 30 has at least one free end portion.
Typically, flexible contracting member 30 comprises a wire, a cable, or a rope, and taken together with the compressible element of body portion 24 and the braided mesh surrounding body portion 24, imparts flexibility to the entire annuloplasty structure.
Typically, flexible contracting member 30 comprises a flexible and/or superelastic material, e.g., nitinol, polyester, stainless steel, or cobalt chrome, and is configured to reside chronically within structure 122. In some applications of the present invention, flexible contracting member 30 comprises a braided polyester suture (e.g., Ti-Cron (™)). In some applications d the present, invention, flexible contracting member 30 is coated with polytetrafluoroethylene (PTFE). In some applications of the present invention, flexible contracting member 30 comprises a plurality of wires that are intertwined to form a rope structure.
Adjusting mechanism 40 comprises a housing 44 which houses a rotatable structure, or a spool 46. The rotatable structure is rotatable. In first and second opposing rotational directions with respect to housing 44 so as to expand and contract the annuloplasty structure, respectively. Spool 46 has a cylindrical body that is disposed perpendicularly with respect to the longitudinal axis of structure 122. As shown in
It is to be noted that for some applications of the present invention, flexible contracting member 30 may be coupled at both its first and second end portions, e.g., first and second ends, to spool 46 of adjusting mechanism 40. In some applications of the present invention, a first end of flexible contracting member 30 is coupled to spool 46 while a second end of flexible contracting member 30 is coupled to the housing which houses spool 46. For some applications, contracting member 30 comprises a continuous band that is looped through a portion of spool 46.
As shown, the annuloplasty structure of implant structure 122 defines a substantially ring-shaped configuration, e.g., a “D”-shaped configuration, as shown, which conforms to the shape of the annulus of a mitral valve of the subject. For applications in which structure 122 is implanted at a tricuspid valve of the patient, the annuloplasty structure assumes a shape suitable to fit the tricuspid valve (e.g., a substantially oval shape).
Prior to contracting of structure 122, the compressible element of body portion 24 is relaxed and structure 122 defines a first perimeter thereof. Structure 122 provides portions 49 which are flexible and less longitudinally compressible, e.g., not longitudinally compressible, with respect to the compressible element of body portion 24. Portions 49 are configured to be disposed along the fibrous portion of the annulus that is between the fibrous trigones of the mitral valve of the heart when structure 122 is anchored, sutured, fastened or otherwise coupled to the annulus of the mitral valve. Portions 49 impart rigidity to structure 122 in the portion thereof that is disposed between the fibrous trigones such that structure 122 better mimics the conformation and functionality of the mitral valve. That is, during rotation of spool 46, and the concurrent contraction or expansion of structure 122, energy is not expended on contracting or expanding portions 49. As shown, coiled portion 12 of body portion 24 has a very small pitch compared to coiled portion 12 in the remaining portions of the annuloplasty structure. For some applications, portions 49 comprise a material that is arranged in a configuration in which portions 49 are more rigid.
Typically, both portions 49 have a combined length of 10-50 mm.
Thus, the annuloplasty structure of implant structure 122 defines a compressible portion and a non-compressible portion. Typically, a radius of curvature at a center of the compressible portion of body portion 24 is smaller than a radius of curvature at a center of less-compressible portions 49, when no external force is applied to the annuloplasty structure.
It is to be noted that the compressible element of body portion 24 and less-compressible portions 49 comprise flexible coiled elements by way of illustration and not limitation. For example, the compressible element of body portion 24 and less-compressible portions 49 may comprise stent-like struts, or a braided mesh. In either configuration, portions 49 are chronically longitudinally compressed in a resting state of structure 122.
It is to be noted that, structure 122 may be provided independently of less-compressible portions 49. In such applications of the present invention, the annuloplasty structure comprises a fully compressible ring, e.g., a continuous ring.
It is to be noted that housing 44 (and mechanism 40) may be disposed at any suitable location along structure 122, and not only in between portions 49 (e.g., in a portion of the annuloplasty structure designated for implantation at an anterior portion of the mitral valve). For example, housing 44 may be coupled to the section of body portion 24 that is compressible. In some applications of the present invention, housing 44 may be disposed in the middle of the section of body portion 24 that is compressible. In some applications of the present invention, housing 44 may be coupled to structure 122 at an interface between a first end of portion 49 and the section of body portion 24 that is compressible. In such applications of the present invention, portions 49 may be combined to form one substantially less-compressible portion having first and second ends that are in series with the compressible portion of body portion 24. For some applications, a plurality of housings and adjusting mechanisms 40 described herein may be coupled to the annuloplasty structure. Each adjusting mechanism 40 may be coupled to a respective contracting member 30 which controls a respective portion of the annuloplasty structure.
Typically, the annuloplasty structure of implant structure 122 is delivered to the annulus of the valve using an elongate tool 50 that is reversibly coupled to adjusting mechanism 40 of structure 122. Tool 50 comprises an elongate body portion 52 which houses a flexible rod that is coupled at a distal end thereof to a screwdriver head. The screwdriver head is configured to be disposed within the channel of spool 46. Typically, the rod functions as a screwdriver which applies force to the screwdriver head in order to rotate spool 46, and thereby facilitate contraction of structure 122.
For some applications, the screwdriver head comprises force applicator 88, as described hereinabove with reference to
(In this context, in the specification and in the claims, “proximal” means closer to the orifice through which the implant structure is originally placed into the body of the patient, along the path of delivery of the implant structure, and “distal” means further from this orifice along the path of delivery of the implant structure.)
In some applications of the present invention, the annuloplasty structure is wrapped around an annuloplasty sizer 121. Once wrapped around sizer 121, the flexible member is contracted by tool 50 such that the annuloplasty structure hugs and is stabilized around sizer 121. Sizer is coupled to a shaft 123. (It is to be noted that, for clarity of illustration, tool 50, body portion 52, and shaft 123 are not shown in the enlarged portion of
Subsequently, tool 50 facilitates the contraction and/or expansion of the annuloplasty structure of implant structure 122 in order to adjust a dimension of the valve annulus. The distal portion of tool 50 comprises a tool housing which surrounds a portion of housing 44 of mechanism 40, and stabilizes housing 44 during the advancement and contraction and/or expansion of structure 122.
Reference is now made to
It is to be noted that adjusting mechanisms 240 are shown in
Reference is now made to
Lower surface 180 of spool 46 is shaped to define one or more (e.g., a plurality, as shown) of recesses 182 which define structural barrier portions 188 of lower surface 160. It is to be noted that any suitable number of recesses 182 may be provided, e.g., between 1 and 10 recesses. For some applications, recesses 182 are provided circumferentially with respect to lower surface 180 of spool 46.
Typically, spool 46 comprises a locking mechanism 145. For some applications, locking mechanism 145 is coupled, e.g., welded, at least in part to a lower surface of spool housing 44. Typically, locking mechanism 145 defines a mechanical element having a planar surface that defines slits 58. The surface of locking mechanism 145 may also be curved, and not planar. Locking mechanism 145 is shaped to provide a protrusion 156 which projects out of a plane defined by the planar surface of the mechanical element. The slits define a depressible portion 120 of locking mechanism 145 that is disposed in communication with and extends toward protrusion 156.
In a resting state of locking mechanism 145 (i.e., a locked state of spool 46), protrusion 156 is disposed within a recess 182 of spool 46. Additionally, in the locked state of spool 46, protrusion 156 is disposed within recess 142 of housing 44.
Depressible portion 128 is aligned with the opening at lower surface 180 of spool 46 and is moveable in response to a force applied thereto by a distal force applicator 86. That is, distal force applicator 88 is configured to be disposed within the channel of spool 46. A distal end of applicator 88 is configured to push on depressible portion 128 in order to move depressible portion 128 downward so as to disengage protrusion 156 from within a recess 182 of spool and to unlock spool 46 from locking mechanism 145.
It is to be noted that the planar, mechanical element of locking mechanism 145 is shown by way of illustration and not limitation and that any suitable mechanical element having or lacking a planar surface but shaped to define at least one protrusion may be used together with locking mechanism 145.
A cap 1044 is provided that is shaped so as to define a planar surface and an annular wall having an upper surface 244 that is coupled to, e.g., welded to, the lower surface of spool housing 44. The annular wall of cap 1044 is shaped so as to define a recessed portion 1144 of cap 1044 that is in alignment with recess 142 of spool housing 44. Locking mechanism 14b is disposed between lower surface 180 of spool 46 and the planar surface of cap 1044.
In an unlocked state of adjusting mechanism 40, protrusion 156 of locking mechanism 145 is disposed within recessed portion 1144 of cap 1044. In the unlocked state, force applicator 88 extends through spool 46 and pushes against depressible portion 128 of locking mechanism 145. The depressible portion is thus pressed downward, freeing protrusion 156 from within a recess 182 defined by structural barrier portions 188 of the lower portion of spool 46. Additionally, protrusion 156 is freed from within the recessed portion of spool housing 44. As a result, contracting mechanism 40 is unlocked, and spool 46 may be rotated with respect to spool housing 44.
Cap 1044 functions to restrict distal pushing of depressible portion 128 beyond a desired distance so as to inhibit deformation of locking mechanism 145. For applications in which adjusting mechanism 40 is implanted in heart tissue, cap 1044 also provides an interface between adjusting mechanism 40 and the heart tissue. This prevents interference of heart tissue on adjusting mechanism 40 during the locking and unlocking thereof. Additionally, cap 1044 prevents damage to heart tissue by depressible portion 128 as it is pushed downward.
Spool 46 is shaped so as to define a driving interface 48. A rotation tool (not shown) is configured to slide engage spool 46 at interface 48. The rotation tool is configured to rotate spool 46 by applying rotational force to spool 46 at interface 48. For some applications, a friction-reducing ring (not shown in
For some applications the rotation tool used to rotate spool 46 may be shaped to provide distal force applicator 88 configured to unlock spool 46 from locking mechanism 145. When unlocked, spool 46 may be bidirectionally rotated.
Following rotation of spool 46 such that contraction member 30 is contracted sufficiently to adjust the perimeter of the annuloplasty structure to a desired dimension so as to contract the annulus of the valve, spool 46 is then locked in place so as to restrict rotation of spool 46. Force applicator 88 is removed from within the channel of spool 46, and thereby, depressible portion 128 returns to its resting state. As depressible portion 128 returns to its resting state, protrusion 156 is introduced within one of the plurality of recesses 182 of lower surface 180 of spool 46 and within recess 142 of housing 44, and thereby restricts rotation of spool 46.
Reference is now made to
Lower surface 180 of spool 246 is shaped to define one or more (e.g., a plurality, as shown) of recesses 182 which define structural barrier portions 188 of lower surface 180. It is to be noted that any suitable number of recesses 182 may be provided, e.g., between 1 and 10 recesses. For some applications, recesses 182 are provided circumferentially with respect to lower surface 180 of spool 246.
Typically, spool 246 comprises a locking mechanism 145. For some applications, locking mechanism 145 is coupled, e.g., welded, at least in part to a lower surface of spool housing 248. Typically, locking mechanism 145 defines a mechanical element having a planar surface that defines silts 58. The surface of locking mechanism 145 may also be curved, and not planar. Locking mechanism 145 is shaped to provide a protrusion 156 which projects out of a plane defined by the planar surface of the mechanical element. The slits define a depressible portion 126 of locking mechanism 145 that is disposed in communication with find extends toward protrusion 156.
In a resting state of locking mechanism 145 (i.e., a locked state of spool 246), protrusion 156 is disposed within a recess 182 of spool 246. Additionally, in the locked state of spool 246, protrusion 156 is disposed within the recess of housing 248.
Depressible portion 128 is aligned with the opening at lower surface 180 of spool 246 and is moveable in response to a force applied thereto by a distal force applicator 88 that extends in a distal direction from a distal portion of longitudinal guide member 86. That is, distal force applicator 88 is configured to be disposed within the channel of spool 246. A distal end of applicator 88 is configured to push on depressible portion 128 in order to move depressible portion 128 downward so as to disengage protrusion 156 from within a recess 182 of spool and to unlock spool 246 from locking mechanism 145.
It is to be noted that the planar, mechanical element of locking mechanism 145 is shown by way of illustration and not limitation and that any suitable mechanical element having or lacking a planar surface but shaped to define at least one protrusion may be used together with locking mechanism 145.
A cap 1044 is provided that is shaped so as to define a planar surface and an annular wall having an upper surface 244 that is coupled to, e.g., welded to, lower surface 176 of spool housing 248. The annular wall of cap 1044 is shaped so as to define a recessed portion 1144 of cap 1044 that is in alignment with the recessed portion of spool housing 240. Locking mechanism 145 is disposed between lower surface 100 of spool 246 and the planar surface of cap 1044.
In an unlocked state of adjusting mechanism 240, protrusion 156 of locking mechanism 145 is disposed within recessed portion 1144 of cap 1044. In the unlocked state, force applicator 68 extends through spool 246 and pushes against depressible portion 126 of locking mechanism 145. The depressible portion is thus pressed downward, freeing protrusion 156 from within a recess 182 defined by structural barrier portions 188 of the lower portion of spool 246. Additionally, protrusion 156 is freed from within the recessed portion of spool housing 248. As a result, contracting mechanism 240 is unlocked, and spool 246 may be rotated with respect to spool housing 240.
Cap 1044 functions to restrict distal pushing of depressible portion 128 beyond a desired distance so as to inhibit deformation of locking mechanism 145. For applications in which adjusting mechanism 240 is implanted in heart tissue, cap 1044 also provides an interface between adjusting mechanism 240 and the heart tissue. This prevents interference of heart tissue on adjusting mechanism 240 during the locking and unlocking thereof. Additionally, cap 1044 prevents damage to heart tissue by depressible portion 128 as it is pushed downward.
Spool 246 is shaped so as to define a rotation-facilitating head 170. A rotation tool (not shown) is configured to slide distally along guide member 86 to engage head 170 of spool 246. The rotation tool is configured to rotate spool 246 by applying rotational force to head 170. A friction-reducing ring 172 is disposed between upper surface 178 of spool 246 and the inner surface of upper surface 160 of spool housing 248.
For some applications, as described herein, guide member 86 is not coupled to spool 246. For such applications the rotation tool used to rotate spool 246 may be shaped to provide a distal force applicator (similar to distal force applicator 88) configured to unlock spool 246 from locking mechanism 145. In the unlocked state, spool 246 may be bidirectionally rotated.
Following rotation of spool 246 such that tension member 60 is pulled sufficiently to adjust the degree of tension of member 60 so as treat tissue of the ventricle as described herein, spool 246 is then locked in place so as to restrict rotation of spool 246. Force applicator 88 is removed from within the channel of spool 246, and thereby, depressible portion 128 returns to its resting state. As depressible portion 128 returns to its resting state, protrusion 156 is introduced within one of the plurality of recesses 162 of lower surface 180 of spool 246 and within the recess of housing 248, and thereby restricts rotation of spool 246.
Spool 246 is shaped so as to provide a hole 242 or other coupling mechanism for coupling a first portion of flexible longitudinal tension member 60 to spool 246, and thereby to adjusting mechanism 240.
Rotation of the rotatable structures of mechanisms 240a and 240b in a first rotational direction pulls tight (e.g., shortens) the respective tension members 60a and 60b in order to draw the portions of cardiac tissue toward implant structure 222 (i.e., to reduce the distance between each mechanism 240 and the second end portion of the respective tension member 60). Mechanisms 240a and 240b thereby act as perimeter-adjusting mechanisms. For some applications of the present invention, system 220 functions to repair and/or effect remodeling of the portions of cardiac tissue, remodeling of the papillary muscles, and/or remodeling of a heart wall of the ventricle to treat distension. For some applications, tension members function as artificial chordae tendineae.
Flexible-longitudinal-tension-member-adjusting-mechanisms 240a and 240b, tension members 60a and 60b, contracting member 30, and flexible-longitudinal-contracting-member-adjusting-mechanism 40 shown in
Adjusting mechanism 40 is coupled to a first end 221 of body portion 224. Flexible contracting member 30 is coupled at a first end portion thereof to adjusting mechanism 40. A second end portion of flexible contracting member 30 is coupled to a second end 223 of body portion 224. Typically, during the resting state, flexible contracting member 30 is disposed in parallel with the longitudinal axis of structure 222. That is, flexible member 30, for some applications does not comprise a continuous band that runs through the entire lumen of the annuloplasty devices described herein, and flexible member 30 has at least one free end portion.
Typically, first end 221 of body portion 224 is welded to coupling member 31 of a housing 344 surrounding spool 46. Housing 344 is similar to housing 44 described herein, with the exception that coupling member 35 of housing 44 is replaced with a first suture fastener 41. First suture fastener 41 is shaped to define a hole 43 for passage therethrough of a suture to suture structure 222 to tissue of the patient. Second end 223 of body portion 224 comprises a second suture fastener 37 that is shaped to define a hole 47 for passage therethrough of a suture.
Reference is now made to
It is to be noted that the contraction of structures 322 and 222 is reversible. That is, rotating spool 46 in a second rotational direction that opposes the first rotational direction used to contract the annuloplasty structure, unwinds a portion of flexible contracting member 30 from around spool 46. Unwinding the portion of flexible contracting member 30 from around spool 46 thus feeds the portion of flexible contracting member 30 back into the lumen of body portion 24 of respective structures 122 and 222, thereby slackening the remaining portion of flexible contracting member 30 that is disposed within the lumen of body portion 24. Responsively, the annuloplasty structure gradually relaxes and expands (i.e., with respect to its contracted state prior to the unwinding) as the compressible element of body portion 24 gradually expands.
Reference is now made to
Respective tissue-coupling elements 302a and 302b are coupled to respective distal portions of members 60a and 60b, respectively. Elements 302a and 302b comprise helical tissue anchors by way of illustration and not limitation. That is, elements 302a and 302b may comprise any suitable tissue-engaging structure. As shown, elements 302a and 302b are configured to be coupled to tissue of respective papillary muscles 2a and 2b.
Following the coupling of structure 122 to the annulus of valve 14 and/or the coupling of tissue-engaging elements 302a and 302b, the spool of adjusting mechanism 40 is rotated in order to adjust a dimension of the annuloplasty structure of implant structure 122 and thereby to adjust a dimension of the annulus and relative positioning of the leaflets of valve 14. For example, in response to rotation of the spool of mechanism 40 in a first rotational direction thereof, the annuloplasty structure is contracted in order to contract the annulus and to draw together the leaflets of valve 14.
Following the coupling of tissue-engaging elements 302a and 302b, the spools of adjusting mechanisms 240a and 240b are rotated in order to adjust a degree of tension of tension members 60a and 60b. For example, in response to rotation of the spools of mechanisms 240a and 240b in a first rotational direction thereof, tension members 60a and 60b are pulled tight in order to pull on papillary muscles 2a and 2b.
For such applications, members 60a and 60b function to relocate and/or alter a geometry and/or spatial configuration of papillary muscles 60a and 60b. For some applications, members 60a and 60b function as artificial chordae tendineae.
For some applications, members 60a and 60b function to repair a distension of the heart wall surrounding ventricle 6.
It is to be noted that implant structure 122 and tension members 60a and 60b may be implanted using an open-heart or minimally-invasive procedure.
For some applications, whether the implant structure and tension members are implanted using an open-heart or a minimally-invasive procedure, adjustment (e.g., rotation) of mechanisms 40, 240a, and 240b is performed off-pump (e.g., while the heart is beating), using a tool to facilitate the rotation of the adjusting mechanisms (e.g., elongate tool 50, force applicator 88, or similar). For example, following an open-heart procedure, heart tissue may be closed so as to provide only a small channel through which the tool extends, such that the heart can beat without leaking. Adjustment (e.g., rotation) of the adjusting mechanisms off-pump facilitates adjustment of the valve annulus and ventricle, while monitoring heart function and/or blood flow using imaging techniques, e.g., such that the physician may adjust until optimal heart function and/or blood flow is attained. For example, the physician may advance the tool (e.g., facilitated by imaging, such as fluoroscopy and/or ultrasound), and then sequentially, and/or repeatedly adjust (e.g., rotate) mechanism 40, mechanism 240a, and mechanism 240b (e.g., facilitated by imaging, such as Doppler ultrasound, in real-time and/or between adjustments). The order in which the adjusting mechanisms are adjusted may be decided by the physician, such as in response to the blood flow monitoring.
Reference is now made to
For some applications, members 60a and 60b function to relocate and/or alter a geometry and/or spatial configuration of papillary muscles 60a and 60b. For other applications, members 60a and 60b function to repair a distension of the heart wall surrounding ventricle 6. For yet other applications, members 60a and 60b function as artificial chordae tendineae.
Reference is now made to
A respective tissue-engaging element is coupled to the second portion of each tension member 60a and 60b. Each tissue-engaging element comprises a respective tissue-abutting pad 342a and 342b configured to rest against respective portions of surface 19 of heart 4.
For such applications, members 60a and 60b function to repair a distension of the heart wall surrounding ventricle 6. For some applications, members 60a and 60b function to relocate and/or alter a geometry and/or spatial configuration of papillary muscles 60a and 60b.
Reference is now made to
As described hereinabove, adjusting mechanism 40 is configured to adjust a dimension of structure 400 by contracting and expanding a contracting member disposed within the lumen of body portion 24.
As shown, flexible-longitudinal-contracting-member-adjusting-mechanism 40 is aligned with body portion 24 along the longitudinal axis thereof, as described hereinabove with reference to
Typically, the rotatable structure of adjusting mechanism 420 comprises a spool. In response to rotation of the rotatable structure of adjusting mechanism 420 in a first rotational direction, successive portions of elongate member 422 are wound around the spool and pull tight the portion of elongate member 422 disposed between adjusting mechanisms 40 and 420. In response, a portion of posterior-configured portion 404 is pulled in the direction as indicated by the arrow in
It is to be noted that the rotation of the rotational structure of adjusting mechanism 420 is reversible, and that following rotation of the rotatable structure in order to pull structure 400 into the configuration shown in
It is to be noted that mechanisms 40 and 420 may be positioned at any suitable location along body portion 24 of structure 400.
As shown, the annuloplasty structure of implant structure 400 defines a substantially ring-shaped configuration, e.g., a “D”-shaped configuration, as shown, which conforms to the shape of the annulus of a mitral valve of the subject. For applications in which structure 400 is implanted at a tricuspid valve of the patient, the annuloplasty structure assumes a shape suitable to fit the tricuspid valve (e.g., a substantially oval shape).
It is to be noted that structure 400 is shown independently of flexible-longitudinal-tension-member-adjusting-mechanisms 240 and tension members 60 by way of illustration and not limitation. For some applications, structure 400 is coupled to one or more mechanisms 240.
Reference is now made to
Structure 500 defines an anterior-configured portion 502, a posterior-configured portion 508, and first and second commissural portions 504 and 506, respectively. Typically, one or more flexible longitudinal contracting members (e.g., contracting member 30, as described herein) is disposed within the lumen of the body portion of structure 500. For some applications the number of contracting members disposed within the lumen of structure 500 corresponds to the number of adjusting mechanisms 40 coupled to structure 500.
In response to rotation of the rotatable structures of adjusting mechanisms 40a, 40b, and 40c in first rotational directions, the one or more contracting members are pulled tight (e.g., in response to winding successive portions of the one or more contracting members around the respective rotational structures of adjusting mechanisms 40a, 40b, and 40c). Responsively, anterior-configured portion 502 and posterior-configured portion 508 are pulled upward, and first and second commissural portions 504 and 506 are pulled downward, in the direction as indicated by the arrows, such that structure 500 assumes a saddle-shape (as shown in
It is to be noted that the rotation of the rotational structure of adjusting mechanisms 40a, 40b, and 40c is reversible, and that following rotation of the rotatable structure in order to pull structure 500 into the configuration shown in
As shown, the annuloplasty structure of implant structure 500 defines a substantially ring-shaped configuration, e.g., a “D”-shaped configuration, as shown, which conforms to the shape of the annulus of a mitral valve of the subject. For applications in which structure 500 is implanted at a tricuspid valve of the patient, the annuloplasty structure assumes a shape suitable to fit the tricuspid valve (e.g., a substantially oval shape).
It is to be noted that structure 500 is shown independently of flexible-longitudinal-tension-member-adjusting-mechanisms 240 and tension members 60 by way of illustration and not limitation. For some applications, structure 500 is coupled to one or more mechanisms 240.
It is to be noted that mechanisms 40 may be positioned at any suitable location along body portion 24 of structure 500. It is to be further noted that any suitable number of mechanisms 40 may be coupled to structure 500.
Reference is made to
The order in which the adjusting mechanisms are adjusted may be decided by the physician, such as in response to the blood flow monitoring. For example, the operating physician may adjust adjusting mechanism 40, then observe display 526, then adjust one or more adjusting mechanisms 240. Alternatively, the physician may adjust one or more adjusting mechanisms 240 first, and subsequently adjust adjusting mechanism 40. It will be understood by those familiar with the art, that any order of adjustment is possible, and similarly, that display 526 may be monitored simultaneously with the adjustments, and/or between adjustments. It is to be noted that the scope of the invention includes other feedback systems, such as audio and/or tactile feedback, in addition to, or instead of, display 526.
Reference is now made to
Reference is now made to
Reference is again made to
Reference is now made to
It is to be noted that systems 120, 220, 300, 320, 340, and structures 400 and 500 for repairing a dilated annul us of the subject may be used to repair any cardiac valve of the subject, e.g., the mitral valve, the tricuspid valve, the aortic valve, and the pulmonary valve. It is to be still further noted that systems described herein for treatment of valves may be used to treat other annular muscles within the body of the patient. For example, the systems described herein may be used in order to treat a sphincter muscle within a stomach of the subject.
Typically, the annuloplasty ring structures described herein, the adjusting mechanisms, and the flexible longitudinal members are advanced and implanted in an open-heart, procedure. For some applications, devices described herein may be implanted using a minimally-invasive or percutaneous transcatheter procedure.
Additionally, the scope of the present invention includes applications described in one or more of the following:
All of these applications are incorporated herein by reference. Techniques described herein can be practiced in combination with techniques described in one or more of these applications.
It will be appreciated by persons skilled in the art that the present, invention is not limited to what has been particularly shown and described hereinabove. Rather, the scope of the present invention includes both combinations and subcombinations of the various features described hereinabove, as well as variations and modifications thereof that are not in the prior art, which would occur to persons skilled in the art upon reading the foregoing description.
The present application is a Continuation of U.S. patent application Ser. No. 15/717,440 to Miller et al., filed. Sep. 27, 2017 which published as US 2018/0014934 and which is a Continuation of U.S. patent application Ser. No. 14/990,172 to Miller et al., filed Jan. 7, 2016, which published as US 2016/0113767 (now U.S. Pat. No. 9,775,709), and which is a Continuation of U.S. patent application Ser. No. 14/486,226 to Miller et al., filed Sep. 15, 2014, and entitled “Implant having multiple rotational assemblies,” which published as US 2015/0012087 (now U.S. Pat. No. 9,265,608), and which is a Continuation of U.S. patent application Ser. No. 13/666,262 to Miller et al, filed Nov. 1, 2012, and entitled “Implant having multiple rotational assemblies,” which published as US 2013/0116780 (now U.S. Pat. No. 8,858,623), and which claims priority from U.S. Provisional Application 61/555,570, filed on Nov. 4, 2011, which is incorporated herein by reference.
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