mhurhangee/ep-ind-claims huggingface dataset:
An optical cross-connect apparatus disposed in each of optical nodes (NDO to NDd) in an optical network in which the optical nodes are each mutually connected through a plurality of internode connection optical fibers (Fi1 to Fi4m, Fo1 to Fo4n), the optical cross-connect apparatus comprising: multiple optical cross-connect portions (OXC1 to OXC4) each having internode connection input ports (Pi1 to Pim, Pim+1 to Pi2m, Pi2m+1 to Pi3m, Pi3m+1 to Pi4m) and internode connection output ports (Po1 to Pon, Pon+1 to Po2n, Po2n+1 to Po3n, Po3n+1 to Po4n) respectively connected to the plurality of internode connection optical fibers, as well as internal connection input ports (Pni1 to Pni2, Pni3 to Pni4, Pni5 to Pni6, Pni7 to Pni8) and internal connection output ports (Pno1 to Pno2, Pno3 to Pno4, Pno5 to Pno6, Pno7 to Pno8), the multiple optical cross-connect portions each being connected such that an internal connection output port of a predetermined optical cross-connect portion is directly connected to an internal connection input port of another optical cross-connect portion and is indirectly connected via said another optical cross-connect portion to an internal connection output port of a further optical cross-connect portion, characterised in that at least one optical cross-connect portion of the multiple optical cross-connect portions including an internal connection input port (Pni1, Pni8, Pni9, Pni10) and an internal connection output port (Pno1, Pno8, Pno9, Pno10) for connecting to an optical cross-connect portion for expansion (OXCA) connected to none of the other optical cross-connect portions. multiple optical cross-connect portions (OXC1 to OXC4) each having internode connection input ports (Pi1 to Pim, Pim+1 to Pi2m, Pi2m+1 to Pi3m, Pi3m+1 to Pi4m) and internode connection output ports (Po1 to Pon, Pon+1 to Po2n, Po2n+1 to Po3n, Po3n+1 to Po4n) respectively connected to the plurality of internode connection optical fibers, as well as internal connection input ports (Pni1 to Pni2, Pni3 to Pni4, Pni5 to Pni6, Pni7 to Pni8) and internal connection output ports (Pno1 to Pno2, Pno3 to Pno4, Pno5 to Pno6, Pno7 to Pno8), the multiple optical cross-connect portions each being connected such that an internal connection output port of a predetermined optical cross-connect portion is directly connected to an internal connection input port of another optical cross-connect portion and is indirectly connected via said another optical cross-connect portion to an internal connection output port of a further optical cross-connect portion, characterised in that at least one optical cross-connect portion of the multiple optical cross-connect portions including an internal connection input port (Pni1, Pni8, Pni9, Pni10) and an internal connection output port (Pno1, Pno8, Pno9, Pno10) for connecting to an optical cross-connect portion for expansion (OXCA) connected to none of the other optical cross-connect portions.
An endoprosthesis delivery system comprising: an elongate member; a tubular endoprosthesis, the tubular endoprosthesis comprising a distal edge; a covering member disposed about the endoprosthesis and extending beyond the distal edge; and at least one flexible element secured to the elongate member and overlaying the distal edge, wherein at the distal edge, the at least one flexible element is situated between the tubular endoprosthesis and the covering member, and wherein the at least one flexible element is adapted to be pushed outward by the expanding tubular endoprosthesis when the covering member uncovers the tubular endoprosthesis such that the endoprosthesis progressively expands from the distal edge during gradual or stepwise withdrawal of the covering member, thereby releasing the endoprosthesis from a constrained configuration to an unconstrained configuration; wherein the at least one flexible element is secured to the elongate member proximal to the distal edge of the tubular endoprosthesis; and wherein the tubular endoprosthesis has an opening located proximal to the distal edge and the at least one flexible element extends through the opening; and wherein the flexible element is configured to guide the covering member over the distal edge during deployment. an elongate member; a tubular endoprosthesis, the tubular endoprosthesis comprising a distal edge; a covering member disposed about the endoprosthesis and extending beyond the distal edge; and at least one flexible element secured to the elongate member and overlaying the distal edge, wherein at the distal edge, the at least one flexible element is situated between the tubular endoprosthesis and the covering member, and wherein the at least one flexible element is adapted to be pushed outward by the expanding tubular endoprosthesis when the covering member uncovers the tubular endoprosthesis such that the endoprosthesis progressively expands from the distal edge during gradual or stepwise withdrawal of the covering member, thereby releasing the endoprosthesis from a constrained configuration to an unconstrained configuration; wherein the at least one flexible element is secured to the elongate member proximal to the distal edge of the tubular endoprosthesis; and wherein the tubular endoprosthesis has an opening located proximal to the distal edge and the at least one flexible element extends through the opening; and wherein the flexible element is configured to guide the covering member over the distal edge during deployment.
A compound of formula I, wherein V is -CR 7a R 7b -, W is -CR 2a R 2b -; X is -CR 1a R 1b -, -O-, -S- or -SO 2 -; Y -NH-C=O-; Z is selected from the group consisting of i) heteroaryl, ii) heteroaryl substituted by 1-4 substituents individually selected from R 8, iii) aryl, and iv) aryl substituted by 1-4 substituents individually selected from R 8, R 1a is selected from the group consisting of i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; R 1b is selected from the group consisting of i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; R 2a is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; R 2b is selected from the group consisting of i) hydrogen, ii) aryl, and iii) C 1-6 -alkyl; or R 2a and R 2b together with the C they are attached form a heterocyclyl; R 3 is F; R 4 is F; R 5 is H; R 6 is H; R 7a is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; R 7b is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; R 8 is selected from the group consisting of i) cyano, ii) cyano-C 1-6 -alkyl, iii) halogen, iv) halogen-C 1-6 -alkoxy, v) halogen-C 1-6 -alkyl, vi) C 1-6 -alkoxy, vii) C 1-6 -alkoxy-C 1-6 -alkyl, viii) C 2-6 -alkynyl, and ix) C 1-6 -alkyl; n is 0 or 1; m is 0 or 1; p is 0 or 1; or pharmaceutically acceptable salts thereof. V is -CR 7a R 7b -, W is -CR 2a R 2b -; X is -CR 1a R 1b -, -O-, -S- or -SO 2 -; Y -NH-C=O-; Z is selected from the group consisting of i) heteroaryl, ii) heteroaryl substituted by 1-4 substituents individually selected from R 8, iii) aryl, and iv) aryl substituted by 1-4 substituents individually selected from R 8, i) heteroaryl, ii) heteroaryl substituted by 1-4 substituents individually selected from R 8, iii) aryl, and iv) aryl substituted by 1-4 substituents individually selected from R 8, R 1a is selected from the group consisting of i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; R 1b is selected from the group consisting of i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; i) hydrogen, ii) halogen, and iii) C 1-6 -alkyl; R 2a is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; i) hydrogen, and ii) C 1-6 -alkyl; R 2b is selected from the group consisting of i) hydrogen, ii) aryl, and iii) C 1-6 -alkyl; i) hydrogen, ii) aryl, and iii) C 1-6 -alkyl; or R 2a and R 2b together with the C they are attached form a heterocyclyl; R 3 is F; R 4 is F; R 5 is H; R 6 is H; R 7a is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; i) hydrogen, and ii) C 1-6 -alkyl; R 7b is selected from the group consisting of i) hydrogen, and ii) C 1-6 -alkyl; i) hydrogen, and ii) C 1-6 -alkyl; R 8 is selected from the group consisting of i) cyano, ii) cyano-C 1-6 -alkyl, iii) halogen, iv) halogen-C 1-6 -alkoxy, v) halogen-C 1-6 -alkyl, vi) C 1-6 -alkoxy, vii) C 1-6 -alkoxy-C 1-6 -alkyl, viii) C 2-6 -alkynyl, and ix) C 1-6 -alkyl; i) cyano, ii) cyano-C 1-6 -alkyl, iii) halogen, iv) halogen-C 1-6 -alkoxy, v) halogen-C 1-6 -alkyl, vi) C 1-6 -alkoxy, vii) C 1-6 -alkoxy-C 1-6 -alkyl, viii) C 2-6 -alkynyl, and ix) C 1-6 -alkyl; n is 0 or 1; m is 0 or 1; p is 0 or 1;
Connection module for a noise shielding device, the connection module being obtainable by injection moulding and comprising: - a base element having a first face configured for connection to a first panel of the shielding device, - a suspended mass element spaced apart from the base element in a thickness direction (X-X), the suspended mass element having a second face configured for connection to a second panel of the shielding device, - a plurality of connection elements connecting the base element and the suspended mass element, wherein: - the suspended mass element has a perimeter edge with a first predetermined shape, - the base element has an opening having an inner edge with a second predetermined shape, characterised in that - the first predetermined shape, when projected along the thickness direction (X-X), is internal to the second predetermined shape. - a base element having a first face configured for connection to a first panel of the shielding device, - a suspended mass element spaced apart from the base element in a thickness direction (X-X), the suspended mass element having a second face configured for connection to a second panel of the shielding device, - a plurality of connection elements connecting the base element and the suspended mass element, - the suspended mass element has a perimeter edge with a first predetermined shape, - the base element has an opening having an inner edge with a second predetermined shape, characterised in that - the first predetermined shape, when projected along the thickness direction (X-X), is internal to the second predetermined shape.
Medical device, comprising - an outer nail, configured for percutaneous introduction into at least one bone, - an introduction tube (39 in which the outer nail can positioned such that, in the introduction tube, it takes a first shape in which it is straight and, outside the introduction tube, it takes a second shape in which it is bended, wherein in the introduction tube it is straight, characterized in that - the outer nail is hollow, - the outer nail comprises at its distal end or along its entire length a thread, and - an inner nail is provided as a guide for the outer nail. - an outer nail, configured for percutaneous introduction into at least one bone, - an introduction tube (39 in which the outer nail can positioned such that, in the introduction tube, it takes a first shape in which it is straight and, outside the introduction tube, it takes a second shape in which it is bended, wherein in the introduction tube it is straight, - the outer nail is hollow, - the outer nail comprises at its distal end or along its entire length a thread, and - an inner nail is provided as a guide for the outer nail.
A control system for a movable body configured to move by utilizing a motor torque generated by an electric drive motor, comprising: the electric drive motor, including: a rotor configured to output a rotational force and provided with a variable-magnetic-force magnet; and a stator opposing the rotor with a gap therebetween and provided with a plurality of coils; at least one powertrain component (7, 15) provided so as to be associated with the drive motor; and a controller having a processor configured to execute or comprising a magnetization controlling module to control a magnetizing current flowing through the coils so as to change a magnetic force of the variable-magnetic-force magnet, characterised in that during a magnetization control in which the magnetic force of the variable-magnetic-force magnet is increased by the magnetization controlling module, the controller operates the at least one powertrain component (7, 15) to suppress an increase in a moving force applied to the movable body due to an increase in the motor torque generated by said electric drive motor. the electric drive motor, including: a rotor configured to output a rotational force and provided with a variable-magnetic-force magnet; and a stator opposing the rotor with a gap therebetween and provided with a plurality of coils; a rotor configured to output a rotational force and provided with a variable-magnetic-force magnet; and a stator opposing the rotor with a gap therebetween and provided with a plurality of coils; at least one powertrain component (7, 15) provided so as to be associated with the drive motor; and a controller having a processor configured to execute or comprising a magnetization controlling module to control a magnetizing current flowing through the coils so as to change a magnetic force of the variable-magnetic-force magnet, characterised in that during a magnetization control in which the magnetic force of the variable-magnetic-force magnet is increased by the magnetization controlling module, the controller operates the at least one powertrain component (7, 15) to suppress an increase in a moving force applied to the movable body due to an increase in the motor torque generated by said electric drive motor.
Device for applying a hair product comprising a support on one face of which there project application elements arranged in such a way that a first group of application elements of a first row is superposable, along a longitudinal axis of the support, with a second group of application elements of a second row, the said application elements of the first and of the second group running parallel to one and the same direction, characterized in that the application elements of the second group have a mean flexibility greater than the mean flexibility of the application elements of the first group, and in that the mean of the spacings between application elements that make up the second group is less than the mean of the spacings between application elements that make up the first group, and in that the application elements of the second group have a mean height greater than a mean height of the application elements of the first group.
A textile comprising fiber elements each comprising a core yarn (302; 304; 803) which is helically wrapped by a twisted or coiled polymer fiber actuator (301; 303; 804, 805); wherein the polymer fiber actuator comprises a fiber having a degree of twist in which the product of (a) the degree of twist per unit length multiplied by (b) the average diameter of the fiber is at least 50°; and wherein the polymer fiber actuator is operable to reversibly change either the porosity of at least one single layer of the textile, the textile coloration, or combinations thereof, in response to a change in temperature or moisture absorption, wherein either the overall textile width or length changes by less than 5%. wherein the polymer fiber actuator comprises a fiber having a degree of twist in which the product of (a) the degree of twist per unit length multiplied by (b) the average diameter of the fiber is at least 50°; and wherein the polymer fiber actuator is operable to reversibly change either the porosity of at least one single layer of the textile, the textile coloration, or combinations thereof, in response to a change in temperature or moisture absorption, wherein either the overall textile width or length changes by less than 5%.
A computer-implemented method for monitoring a person performing a physical exercise based on a sequence of image frames showing the person's exercise activity, the method comprising the following steps - extracting, based on the sequence of image frames, for each image frame a set of body key points (5-1 - 5-16) using a neural network, the set of body key points (5-1 - 5-16) being indicative of the person's posture in the image frame; - deriving, based on a subset of the body key points (5-1 - 5-16) in each image frame, at least one characteristic parameter indicating the progression of the person's movement; - detecting a start loop condition by evaluating the time progression of at least one of the characteristic parameters, said start loop condition indicating a transition from a start posture of the person to the person's movement when performing the physical exercise, wherein a loop of exercising encompasses one single repetition of the physical exercise; - detecting an end loop condition by evaluating the time progression of at least one of the characteristic parameters, said end loop condition indicating a transition from the person's movement when performing the physical exercise to an intermediate posture, wherein, as a result, the start of the loop and the end of the loop are determined; and - deriving the time period for a single loop of the physical exercise based on the start of the loop and the end of the loop and evaluating the time period. - extracting, based on the sequence of image frames, for each image frame a set of body key points (5-1 - 5-16) using a neural network, the set of body key points (5-1 - 5-16) being indicative of the person's posture in the image frame; - deriving, based on a subset of the body key points (5-1 - 5-16) in each image frame, at least one characteristic parameter indicating the progression of the person's movement; - detecting a start loop condition by evaluating the time progression of at least one of the characteristic parameters, said start loop condition indicating a transition from a start posture of the person to the person's movement when performing the physical exercise, wherein a loop of exercising encompasses one single repetition of the physical exercise; - detecting an end loop condition by evaluating the time progression of at least one of the characteristic parameters, said end loop condition indicating a transition from the person's movement when performing the physical exercise to an intermediate posture, wherein, as a result, the start of the loop and the end of the loop are determined; and - deriving the time period for a single loop of the physical exercise based on the start of the loop and the end of the loop and evaluating the time period.
A system, comprising: an inlet grid; a first vibration device (120a-n) coupled to the inlet grid and a second vibration device (120a-n) coupled to the inlet grid; and a controller communicatively coupled to the first vibration device (120a-n) and the second vibration device (120a-n), wherein the controller is configured to transmit a first vibration signal to the first vibration device (120a-n) and a second vibration signal to the second vibration device (120a-n); characterized in that the first vibration signal is operable to cause the first vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a first natural frequency, thereby inducing a first mode shape in the inlet grid; the second vibration signal is operable to cause the second vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a second natural frequency, thereby inducing a second mode shape in the inlet grid; the first vibration device and the second vibration device operate concurrently; and the first mode shape and the second mode shape superimpose at one or more anti-nodes on the inlet grid to break up and prevent ice on the inlet grid. an inlet grid; a first vibration device (120a-n) coupled to the inlet grid and a second vibration device (120a-n) coupled to the inlet grid; and a controller communicatively coupled to the first vibration device (120a-n) and the second vibration device (120a-n), wherein the controller is configured to transmit a first vibration signal to the first vibration device (120a-n) and a second vibration signal to the second vibration device (120a-n); characterized in that the first vibration signal is operable to cause the first vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a first natural frequency, thereby inducing a first mode shape in the inlet grid; the second vibration signal is operable to cause the second vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a second natural frequency, thereby inducing a second mode shape in the inlet grid; the first vibration device and the second vibration device operate concurrently; and the first mode shape and the second mode shape superimpose at one or more anti-nodes on the inlet grid to break up and prevent ice on the inlet grid.
A fluid leakage deflection arrangement (200, 500) for a liquid-cooled rack-mounted electronic processing assembly, comprising: an immersion case containing a first cooling liquid in which an electronic device of the rack-mounted electronic processing assembly is at least partially submerged therein, the electronic device comprising electronic components; the fluid leakage deflection arrangement (200, 500) being characterised in that the fluid leakage deflection arrangement (200, 500) further comprises: a liquid cooling block mounted on the electronic device and in thermal contact with the electronic components and incorporating an internal conduit to accommodate the circulation of a channelized cooling liquid to absorb and extract thermal energy from the electronic components; and a deflection unit (256, 502) configured to prevent the electronic device from being in contact with a leaking channelized cooling liquid by diverting leaking channelized cooling liquid away from the electronic components. an immersion case containing a first cooling liquid in which an electronic device of the rack-mounted electronic processing assembly is at least partially submerged therein, the electronic device comprising electronic components; the fluid leakage deflection arrangement (200, 500) being characterised in that the fluid leakage deflection arrangement (200, 500) further comprises: a liquid cooling block mounted on the electronic device and in thermal contact with the electronic components and incorporating an internal conduit to accommodate the circulation of a channelized cooling liquid to absorb and extract thermal energy from the electronic components; and a deflection unit (256, 502) configured to prevent the electronic device from being in contact with a leaking channelized cooling liquid by diverting leaking channelized cooling liquid away from the electronic components. a liquid cooling block mounted on the electronic device and in thermal contact with the electronic components and incorporating an internal conduit to accommodate the circulation of a channelized cooling liquid to absorb and extract thermal energy from the electronic components; and a deflection unit (256, 502) configured to prevent the electronic device from being in contact with a leaking channelized cooling liquid by diverting leaking channelized cooling liquid away from the electronic components.