mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the apparatus comprising: an intravascular device having a lumen and a distal portion, the distal portion including a first aperture and a second aperture that are longitudinally offset from one another and both in fluid communication with the lumen ; and a reentry device having a body with a proximal portion and a distal portion, and a penetrator extending distally beyond a distal end of the body , wherein a diameter of the body is greater than a diameter of the penetrator , wherein the reentry device has a natural state and a compressed state, wherein when the reentry device is in the compressed state, the distal portion is substantially aligned with the proximal portion, whereby the reentry device is configured to be advanced into the lumen of the intravascular device , and wherein when the reentry device is in the natural state, the distal portion forms an angle with respect to the proximal portion, whereby the distal portion of the reentry device is configured to be advanced through each of the first and second apertures. an intravascular device having a lumen and a distal portion, the distal portion including a first aperture and a second aperture that are longitudinally offset from one another and both in fluid communication with the lumen ; and a reentry device having a body with a proximal portion and a distal portion, and a penetrator extending distally beyond a distal end of the body , wherein a diameter of the body is greater than a diameter of the penetrator , wherein the reentry device has a natural state and a compressed state, wherein when the reentry device is in the compressed state, the distal portion is substantially aligned with the proximal portion, whereby the reentry device is configured to be advanced into the lumen of the intravascular device , and wherein when the reentry device is in the natural state, the distal portion forms an angle with respect to the proximal portion, whereby the distal portion of the reentry device is configured to be advanced through each of the first and second apertures.
Composition for immunoassay, comprising at least (i) an amphipol selected from - the poly(maleic anhydride)s, on which at least one hydrophobic alkyl chain and at least one hydrophilic group are grafted, with an average molecular weight comprised between 1,000 and 100,000 g/mol, preferably between 4,000 and 70,000 g/mol, said hydrophobic alkyl chain being a linear alkyl chain of formula (-CH 2 ) n - where n is an integer greater than or equal to 4, preferably greater than or equal to 6, preferably greater than or equal to 8, and for example comprised between 4 and 16, preferably between 8 and 12,and (ii) an amphoteric copolymer based on (meth)acrylate monomers, a part of these monomers comprising a phosphorylcholine group. - the poly(maleic anhydride)s, on which at least one hydrophobic alkyl chain and at least one hydrophilic group are grafted, with an average molecular weight comprised between 1,000 and 100,000 g/mol, preferably between 4,000 and 70,000 g/mol, said hydrophobic alkyl chain being a linear alkyl chain of formula (-CH 2 ) n - where n is an integer greater than or equal to 4, preferably greater than or equal to 6, preferably greater than or equal to 8, and for example comprised between 4 and 16, preferably between 8 and 12,and (ii) an amphoteric copolymer based on (meth)acrylate monomers, a part of these monomers comprising a phosphorylcholine group.
An automation control system , comprising: one or more components comprising a plug-in management system configured to register one or more chainable plug-ins with the one or more components , wherein the one or more chainable plug-ins are configured to create resources of different types in a polymorphic chain, wherein resources of different types are derived from each other in the polymorphic chain, wherein the plug-in management system is configured to determine a proper polymorphic chain, and wherein the proper polymorphic chain comprises a proper subset of chainable plug-ins and a proper order, and specifies a particular resource type. one or more components comprising a plug-in management system configured to register one or more chainable plug-ins with the one or more components , wherein the one or more chainable plug-ins are configured to create resources of different types in a polymorphic chain, wherein resources of different types are derived from each other in the polymorphic chain, wherein the plug-in management system is configured to determine a proper polymorphic chain, and wherein the proper polymorphic chain comprises a proper subset of chainable plug-ins and a proper order, and specifies a particular resource type.
A medical apparatus comprising: an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller is configured to cause the imager to stop performing irradiation of the electromagnetic wave and cause the acquirer to stop acquiring the fluoroscopic image to control the acquirer to be in a state of not receiving the fluoroscopic image even if the imager sends the fluoroscopic image to the acquirer , in a case where a first switch is operated, and the controller is configured to cause the imager to stop performing irradiation of the electromagnetic wave and maintain a state in which the acquirer is capable of acquiring the fluoroscopic image to cause the acquirer to remain in a state of receiving the fluoroscopic image in a case where the imager sends the fluoroscopic image to the acquirer , in a case where a second switch is operated. an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; and a controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam in a case where the target position identified by the identifier is settled within an irradiation permission range, wherein the controller is configured to cause the imager to stop performing irradiation of the electromagnetic wave and cause the acquirer to stop acquiring the fluoroscopic image to control the acquirer to be in a state of not receiving the fluoroscopic image even if the imager sends the fluoroscopic image to the acquirer , in a case where a first switch is operated, and the controller is configured to cause the imager to stop performing irradiation of the electromagnetic wave and maintain a state in which the acquirer is capable of acquiring the fluoroscopic image to cause the acquirer to remain in a state of receiving the fluoroscopic image in a case where the imager sends the fluoroscopic image to the acquirer , in a case where a second switch is operated.
Track section of a car racing track for model vehicles with a road element , which ideally forms a road for model vehicles and on which model vehicles can be moved, and with a minimum of one contact rail to supply the model vehicles with energy, wherein the minimum of one contact rail has a U-shaped profile characterised by the fact that the minimum of one contact rail has a perforation and the road element to which the minimum of one contact rail is integrally connected, wherein the material of the road element at least partially penetrates the perforation in the minimum of one contact rail .
A computer-implemented method of augmented reality interaction for repositioning a virtual object on an image of a surface, the method comprising; capturing (s10) successive video images of the surface and first and second control objects; defining (s20) an interaction start area over the surface with respect to the virtual object; detecting (s30) the first and second control objects in successive video images; detecting (s40) whether the first and second control objects are brought together over the interaction start area; and if so, analysing (s50) a region of successive video images using optical flow analysis to determine the overall direction of motion of the first and second control objects; and augmenting the video image to show the virtual object being held by the first and second control objects detected as brought together over the interaction start area; and in which the step of augmenting the video image to show the virtual object being held by the first and second control objects comprises the step of superposing a graphical effect on the video image prior to superposition of the virtual object, such that the graphical effect visually disconnects the virtual object from the first and second control objects in the resulting augmented image.
A surgical robot comprising: a surgical robotic drape for enveloping a portion of the surgical robot to define a sterile boundary thereover; and a robotic arm comprising a drive assembly , the drive assembly having a plurality of interfaces for coupling linear mechanical drive to an instrument, the instrument comprising three joints and having a plurality of interfaces for coupling linear mechanical drive from the drive assembly, the drive assembly being configured to provide linear mechanical drive in a direction parallel to the planar extent of the drape for selectively actuating the three joints, wherein the drape comprises: a plurality of interface elements (811-821), each interface element configured to engage with both a drive assembly interface and an instrument interface to couple the drive assembly to the instrument to thereby transfer linear mechanical drive provided by the drive assembly through the drape to selectively actuate a respective joint of the instrument , the plurality of interface elements (811-821) being attached to material of the drape in a spatial arrangement so that each interface element is separated from each of the other interface elements by the material of the drape, each of the interface elements configured to act as reinforcement structures to the material of the drape. a surgical robotic drape for enveloping a portion of the surgical robot to define a sterile boundary thereover; and a robotic arm comprising a drive assembly , the drive assembly having a plurality of interfaces for coupling linear mechanical drive to an instrument, the instrument comprising three joints and having a plurality of interfaces for coupling linear mechanical drive from the drive assembly, the drive assembly being configured to provide linear mechanical drive in a direction parallel to the planar extent of the drape for selectively actuating the three joints, wherein the drape comprises: a plurality of interface elements (811-821), each interface element configured to engage with both a drive assembly interface and an instrument interface to couple the drive assembly to the instrument to thereby transfer linear mechanical drive provided by the drive assembly through the drape to selectively actuate a respective joint of the instrument , the plurality of interface elements (811-821) being attached to material of the drape in a spatial arrangement so that each interface element is separated from each of the other interface elements by the material of the drape, each of the interface elements configured to act as reinforcement structures to the material of the drape.
A vehicle anti-siphon inlet device comprising: a mounting structure for attachment to the inlet of a vehicle fuel tank; a tubular inlet body having a central bore defined by a tubular wall and having a longitudinal axis (X); the tubular body having a length (L) defined between a proximal end and a distal end; the tubular body depending from the mounting structure at the proximal end; the tubular wall being open at the proximal end for receiving fuel; a plurality of apertures provided through the tubular wall for egress of fuel; wherein the distal end of the tubular body is blocked by a baffle defining a baffle surface facing into the bore of the tubular body , wherein at least a portion of the baffle surface is inclined at an acute angle relative to the longitudinal axis (X) to deflect fuel towards apertures in the tubular wall; wherein the baffle surface is at least substantially free from apertures such that no more than 25% of the baffle surface is apertured; wherein a peripheral portion of the base of the baffle curves radially outwards towards the tubular wall such that the peripheral portion defines a concave portion of the baffle surface which faces the tubular body ; wherein the baffle extends along at least about 25% the length (L) of the tubular body in a direction parallel to said longitudinal axis (X) of the tubular body ; and wherein the surface of the baffle rises to an apex and the baffle comprises a single axial bore which passes from the apex of the baffle surface to the bottom surface . a mounting structure for attachment to the inlet of a vehicle fuel tank; a tubular inlet body having a central bore defined by a tubular wall and having a longitudinal axis (X); the tubular body having a length (L) defined between a proximal end and a distal end; the tubular body depending from the mounting structure at the proximal end; the tubular wall being open at the proximal end for receiving fuel; a plurality of apertures provided through the tubular wall for egress of fuel; wherein the distal end of the tubular body is blocked by a baffle defining a baffle surface facing into the bore of the tubular body , wherein at least a portion of the baffle surface is inclined at an acute angle relative to the longitudinal axis (X) to deflect fuel towards apertures in the tubular wall; wherein the baffle surface is at least substantially free from apertures such that no more than 25% of the baffle surface is apertured; wherein a peripheral portion of the base of the baffle curves radially outwards towards the tubular wall such that the peripheral portion defines a concave portion of the baffle surface which faces the tubular body ; wherein the baffle extends along at least about 25% the length (L) of the tubular body in a direction parallel to said longitudinal axis (X) of the tubular body ; and wherein the surface of the baffle rises to an apex and the baffle comprises a single axial bore which passes from the apex of the baffle surface to the bottom surface .
A vehicle travel control method comprising: when controlling a vehicle (V) having an autonomous travel control function to travel autonomously, detecting whether or not an object (H,W) is present around the vehicle (V) using object detectors (13a-13h); and characterized by displaying, for each object detector (13a-13h), a predetermined pattern (P) at a certain position on a road surface toward a detection range of the object detector so as to be visible using pattern display devices (22a-22h) corresponding to the object detectors (13a-13h) respectively; upon change from a state of not detecting the object (H,W) to a state of detecting the object (H,W), by one of the object detectors (13c; 13f; 13h) changing the respective predetermined pattern (P) to a pattern different from the pattern (P) displayed until then; wherein the predetermined pattern (P) corresponds to an area correlating with a detection range of the respective object detector (13a-13h), and an area of the pattern (P) different from the pattern (P) displayed until then is smaller than an area of the pattern (P) displayed by the other pattern display devices corresponding to the other object detectors. when controlling a vehicle (V) having an autonomous travel control function to travel autonomously, detecting whether or not an object (H,W) is present around the vehicle (V) using object detectors (13a-13h); and characterized by displaying, for each object detector (13a-13h), a predetermined pattern (P) at a certain position on a road surface toward a detection range of the object detector so as to be visible using pattern display devices (22a-22h) corresponding to the object detectors (13a-13h) respectively; upon change from a state of not detecting the object (H,W) to a state of detecting the object (H,W), by one of the object detectors (13c; 13f; 13h) changing the respective predetermined pattern (P) to a pattern different from the pattern (P) displayed until then; wherein the predetermined pattern (P) corresponds to an area correlating with a detection range of the respective object detector (13a-13h), and an area of the pattern (P) different from the pattern (P) displayed until then is smaller than an area of the pattern (P) displayed by the other pattern display devices corresponding to the other object detectors.
Load measuring arrangement comprising a test object and a load measuring apparatus for measuring a load at the test object , wherein the load measuring apparatus has a magnetic field generating device for generating a magnetic field in a measuring region of the test object and a first and a second magnetic field capturing device for capturing a magnetic field parameter which changes on account of the load, wherein the measuring region has a layer made of a ferromagnetic amorphous or nanocrystalline metal with a maximum particle size less than 1 μm, characterized in that the test object includes a body that is formed from a non-ferromagnetic material and which has a coating made of the ferromagnetic amorphous or nanocrystalline metal at least in the measuring region and wherein the ferromagnetic amorphous or nanocrystalline metal is electroless nickel or includes electroless nickel with a phosphorus content of 2 to 12% by weight, preferably 5 to 9% by weight.
A cotyloid prosthesis for hipbone prostheses, comprising a metal back and an insert , both substantially hemispherical in shape, said metal back being provided by using additive powder technology, characterized in that it further comprises a rotation preventing interlocking system for interlocking said insert within said metal back , said rotation-preventing interlocking system being constituted by one or more rounded metallic protrusions defined along the inner circumference of the edge of said metal back , and by one or more seats that are defined along the outer circumference of the edge of said insert and are complementary to said one or more protrusions .
A method for wireless communications at a network device , the method comprising: performing (510; 1910) a rate matching procedure of a transport block, the transport block associated with a first transmission configuration indicator state and a second transmission configuration indicator state, wherein the rate matching procedure comprises one of joint rate matching or separate rate matching; generating (515; 1915) a set of bits based at least in part on the rate matching procedure, wherein, if the rate matching procedure comprises joint rate matching, the set of bits indicates a joint redundancy version for both the first transmission configuration indicator state and the second transmission configuration indicator state, and, if the rate matching procedure comprises separate rate matching, the set of bits indicates a first redundancy version for the first transmission configuration indicator state and indicates a second redundancy version for the second transmission configuration indicator state, wherein, if the rate matching procedure comprises separate rate matching, the first redundancy version corresponds to a first codeword, and the second redundancy version corresponds to a second codeword different from the first codeword; and transmitting (520; 1920), to a user equipment, UE, , a downlink control information message comprising the set of bits. performing (510; 1910) a rate matching procedure of a transport block, the transport block associated with a first transmission configuration indicator state and a second transmission configuration indicator state, wherein the rate matching procedure comprises one of joint rate matching or separate rate matching; generating (515; 1915) a set of bits based at least in part on the rate matching procedure, wherein, if the rate matching procedure comprises joint rate matching, the set of bits indicates a joint redundancy version for both the first transmission configuration indicator state and the second transmission configuration indicator state, and, if the rate matching procedure comprises separate rate matching, the set of bits indicates a first redundancy version for the first transmission configuration indicator state and indicates a second redundancy version for the second transmission configuration indicator state, wherein, if the rate matching procedure comprises separate rate matching, the first redundancy version corresponds to a first codeword, and the second redundancy version corresponds to a second codeword different from the first codeword; and transmitting (520; 1920), to a user equipment, UE, , a downlink control information message comprising the set of bits.
A method for lubricating a strain wave gearing using a powder of an ionic crystalline compound having a layered crystal structure, said method characterized in that : carrying out braking-in operation of the strain wave gearing using non-hydrophobized powder having been enclosed or packed as the powder of the ionic crystalline compound in an internal space of the strain wave gearing, the internal space being communicated with contact surfaces to be lubricated; transferring the non-hydrophobized powder to the contact surfaces to form a lubricating film on the contact surfaces by the breaking-in operation; after the breaking-in operation, removing any non-hydrophobized powder remaining in the internal space and enclosing or packing a hydrophobized powder in the internal space as a powder of the ionic crystalline compound; and during operation under load, maintaining a lubricated state of the contact surfaces by the lubricating film and the hydrophobized powder enclosed or packed in the internal space. carrying out braking-in operation of the strain wave gearing using non-hydrophobized powder having been enclosed or packed as the powder of the ionic crystalline compound in an internal space of the strain wave gearing, the internal space being communicated with contact surfaces to be lubricated; transferring the non-hydrophobized powder to the contact surfaces to form a lubricating film on the contact surfaces by the breaking-in operation; after the breaking-in operation, removing any non-hydrophobized powder remaining in the internal space and enclosing or packing a hydrophobized powder in the internal space as a powder of the ionic crystalline compound; and during operation under load, maintaining a lubricated state of the contact surfaces by the lubricating film and the hydrophobized powder enclosed or packed in the internal space.