mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device configured to be at least partially implanted within a patient comprising: a housing configured to be implanted at least partially within the patient; a memory, within the housing, that stores executable components; and circuitry, within the housing, and configured to at least one of obtain sensed physiological data associated with the patient or deliver a therapy to the patient; a processor, within the housing, that executes the executable components stored in the memory, wherein the executable components comprise: a communication component configured to establish a telemetry connection with an external device to communicate data associated with at least one of the sensed physiological data or the therapy; and an authorization component configured to determine whether the external device is authorized to communicate with the implantable medical device, wherein the communication component is further configured to disable the telemetry connection with the external device and prevent additional communication with at least the external device for a defined period of time based on a determination that the external device fails to be authorized to communicate with the implantable medical device. a housing configured to be implanted at least partially within the patient; a memory, within the housing, that stores executable components; and circuitry, within the housing, and configured to at least one of obtain sensed physiological data associated with the patient or deliver a therapy to the patient; a processor, within the housing, that executes the executable components stored in the memory, wherein the executable components comprise: a communication component configured to establish a telemetry connection with an external device to communicate data associated with at least one of the sensed physiological data or the therapy; and an authorization component configured to determine whether the external device is authorized to communicate with the implantable medical device, wherein the communication component is further configured to disable the telemetry connection with the external device and prevent additional communication with at least the external device for a defined period of time based on a determination that the external device fails to be authorized to communicate with the implantable medical device. a communication component configured to establish a telemetry connection with an external device to communicate data associated with at least one of the sensed physiological data or the therapy; and an authorization component configured to determine whether the external device is authorized to communicate with the implantable medical device, wherein the communication component is further configured to disable the telemetry connection with the external device and prevent additional communication with at least the external device for a defined period of time based on a determination that the external device fails to be authorized to communicate with the implantable medical device.
Inflatable tent with a tent outer skin and with a supporting frame which surrounds the tent outer skin at least in sections on the outer side and is connected to the tent outer skin, characterized in that the tent outer skin has at least one connecting rail and the supporting frame has at least one rail holder, or vice versa, which connect the tent outer skin and the supporting frame. with a tent outer skin and with a supporting frame which surrounds the tent outer skin at least in sections on the outer side and is connected to the tent outer skin, characterized in that the tent outer skin has at least one connecting rail and the supporting frame has at least one rail holder, or vice versa, which connect the tent outer skin and the supporting frame.
A method of making a genetically edited livestock animal, said method comprising exposing embryos, primary somatic cells, stem cells, germ cells to a single-stranded DNA (ssDNA) homology-dependent repair template and an mRNA encoding a TALEN, with the TALEN specifically binding to a target chromosomal site in the embryos or cells, cloning the cells in a surrogate mother or using the embryo for creating a genetically edited animal, with the surrogate mother gestating an animal that is genetically edited at the target chromosomal site, the method being performed without a reporter gene.
Method for producing a component by means of an additive manufacturing process, the component being fully or partially produced from a liquid raw material solidifiable by heating, with the raw material being dispensed in liquid form into a manufacturing zone and, by means of computer-controlled, point-by-point targeted light irradiation, being heated and being solidified by virtue of the region of incidence of a light beam from a light beam source being altered continuously and/or incrementally relative to the manufacturing zone, the light beam being emitted with a substantially ring-shaped light intensity profile by the light beam source or by an optical device that influences the light from the light beam source, characterized in that the substantially ring-shaped light intensity profile is formed by a ring-shaped region in which the light intensity initially increases in the direction toward the centre of the ring from the outer diameter and then drops off again toward the inner diameter of the ring, with the light intensity being substantially equal to zero in the interior region of the ring, that is to say within the inner diameter.
A seaming assembly configured to seam a can end onto a can body to form a seamed container, the seaming assembly comprising: a lifter chuck assembly including a lifter plate that is configured to support a can body; a seaming chuck including a drive surface that is configured to contact a portion of the can end during seaming and against which a seaming force is applied; and a knockout pad that is movable relative to the seaming chuck, the knockout pad is configured to (i) locate the can end prior to seaming, and (ii) contact the can end to disengage the seamed container from the seaming chuck after seaming, characterised in that (i) the knockout pad is configured to provide a first axial force to the can end and can body prior to the can end engaging the seaming chuck, (ii) the lifter chuck assembly is configured to lift the can end and can body so that the can end engages the seaming chuck, and (iii) the lifter chuck assembly is configured to provide a second axial force to the can end and can body when the can end engages the seaming chuck, the second axial force is greater than the first axial force by less than 311.38 N. a lifter chuck assembly including a lifter plate that is configured to support a can body; a seaming chuck including a drive surface that is configured to contact a portion of the can end during seaming and against which a seaming force is applied; and a knockout pad that is movable relative to the seaming chuck, the knockout pad is configured to (i) locate the can end prior to seaming, and (ii) contact the can end to disengage the seamed container from the seaming chuck after seaming, characterised in that (i) the knockout pad is configured to provide a first axial force to the can end and can body prior to the can end engaging the seaming chuck, (ii) the lifter chuck assembly is configured to lift the can end and can body so that the can end engages the seaming chuck, and (iii) the lifter chuck assembly is configured to provide a second axial force to the can end and can body when the can end engages the seaming chuck, the second axial force is greater than the first axial force by less than 311.38 N. (i) the knockout pad is configured to provide a first axial force to the can end and can body prior to the can end engaging the seaming chuck, (ii) the lifter chuck assembly is configured to lift the can end and can body so that the can end engages the seaming chuck, and (iii) the lifter chuck assembly is configured to provide a second axial force to the can end and can body when the can end engages the seaming chuck, the second axial force is greater than the first axial force by less than 311.38 N.
A connection mechanism which connects a first electronic device and a second electronic device to each other, comprising: a first cylindrical piping connector comprising a first flange portion and a guide portion having a shape protruding in an axial direction, the first piping connector configured to be connected to the first electronic device; a second cylindrical piping connector comprising a second flange portion having the same diameter as that of the first flange portion and a guide hole portion having a shape recessed in the axial direction to allow the guide portion to be fitted therein, the second piping connector configured to be connected to the second electronic device; and a piping clamp comprising two half circular arc-shaped arm portions (133a, 133b) and a fastening and fixing mechanism configured to fasten and fix the two arm portions (133a, 133b) to form a circle, the two arm portions (133a, 133b) having a groove formed in an inner circumference thereof to allow the first flange portion and the second flange portion to be fitted therein in a state where the guide portion is fitted in the guide hole portion, wherein each of the first flange portion and the second flange portion has cut-out surfaces formed in parallel to each other at two symmetrical positions on an outer circumference thereof, wherein the cut-out surfaces of the first flange portion and the second flange portion have the same shape and the same size. a first cylindrical piping connector comprising a first flange portion and a guide portion having a shape protruding in an axial direction, the first piping connector configured to be connected to the first electronic device; a second cylindrical piping connector comprising a second flange portion having the same diameter as that of the first flange portion and a guide hole portion having a shape recessed in the axial direction to allow the guide portion to be fitted therein, the second piping connector configured to be connected to the second electronic device; and a piping clamp comprising two half circular arc-shaped arm portions (133a, 133b) and a fastening and fixing mechanism configured to fasten and fix the two arm portions (133a, 133b) to form a circle, the two arm portions (133a, 133b) having a groove formed in an inner circumference thereof to allow the first flange portion and the second flange portion to be fitted therein in a state where the guide portion is fitted in the guide hole portion, wherein each of the first flange portion and the second flange portion has cut-out surfaces formed in parallel to each other at two symmetrical positions on an outer circumference thereof, wherein the cut-out surfaces of the first flange portion and the second flange portion have the same shape and the same size.
Method for producing a shell catalyst which comprises a porous shaped catalyst support body having an outer shell within which at least one catalytically active species is present, the method being performed using a device which is designed to generate, by means of a process gas, a fluidized bed of shaped catalyst support bodies in which the shaped catalyst support bodies circulate elliptically or toroidally, preferably toroidally, comprising the steps of a) charging the device with porous shaped catalyst support bodies and generating a shaped catalyst support body fluidized bed by means of a process gas, the shaped catalyst support bodies circulating elliptically or toroidally in the fluidized bed, preferably toroidally; b) spraying the shaped catalyst support bodies with a solution comprising a catalytically active species or a precursor thereof, the shaped catalyst support bodies circulating elliptically or toroidally in the fluidized bed; c) drying the shaped catalyst support bodies sprayed with the solution. a) charging the device with porous shaped catalyst support bodies and generating a shaped catalyst support body fluidized bed by means of a process gas, the shaped catalyst support bodies circulating elliptically or toroidally in the fluidized bed, preferably toroidally; b) spraying the shaped catalyst support bodies with a solution comprising a catalytically active species or a precursor thereof, the shaped catalyst support bodies circulating elliptically or toroidally in the fluidized bed; c) drying the shaped catalyst support bodies sprayed with the solution.
A compound of the Formula IB: or a pharmaceutically acceptable salt and/or solvate thereof; wherein R 1 and R 2 are selected from the group consisting of: Compound R 1 R 2 3 4 11 -CH 2 C (CH 3) 2 15 -CH 2 -NH-S(O 2)-CH 3 16 -CH 2 C -NH(CH 2 CH 3) 17 -CH 2 -C O-CH 2 CH 3 18 -C(=N-OH)-CH 2 CH 3 19 -C -CH 2 CH 3 21 -C -NH(CH 3) 23 -CH 2 OH 24 -CH 2 CH 2 OH 25 -CH 2 CH 2 CH 3 26 -CH 2 OCH 3 29 -CH 2 C -NH 2 30 -CH 2 -C -CH 3 31 -CH 2 -C O-CH 3 38 -CH 2 CN 51 -C -NH 2 52 -C(=N-OCH 3)-CH 3 53 -C -CH 3 54 -C(=N-OH)-CH 3 55 -C OCH 3 56 -CH 2 Cl 57 -CH 3 58 -C(=N-OCH 3)-CH 2 CH 3
A method of wireless communication at a user equipment, UE, comprising: receiving one or more configurations for multicast transmissions, each configuration associated with a group radio network temporary identifier, G-RNTI; selecting a modulation and coding scheme, MCS, table for the G-RNTI; receiving downlink control information associated with the G-RNTI; determining a transport block size, TBS, for a multicast transmission based on an overhead value for the G-RNTI and the downlink control information received for the G-RNTI, wherein determining the TBS for the multicast transmission based on the overhead value comprises receiving a configuration of a UE-specific overhead value, or receiving a configured overhead value in the one or more configurations for multicast transmissions on a system information block; and decoding the multicast transmission based on the MCS table and the TBS. receiving one or more configurations for multicast transmissions, each configuration associated with a group radio network temporary identifier, G-RNTI; selecting a modulation and coding scheme, MCS, table for the G-RNTI; receiving downlink control information associated with the G-RNTI; determining a transport block size, TBS, for a multicast transmission based on an overhead value for the G-RNTI and the downlink control information received for the G-RNTI, wherein determining the TBS for the multicast transmission based on the overhead value comprises receiving a configuration of a UE-specific overhead value, or receiving a configured overhead value in the one or more configurations for multicast transmissions on a system information block; and decoding the multicast transmission based on the MCS table and the TBS.
A wind turbine nacelle handling system in connection with self-loading or self-unloading of said nacelle, said system being characterised in that it comprises: a wind turbine nacelle with a load carrying structure configured for carrying the weight of the nacelle and the nacelle components mounted in said nacelle such as generator, gear, and/or bearings, two or more lifting means (15, 16) for displacing said nacelle substantially vertically during said self-loading or self-unloading of said nacelle, wherein at least one of said lifting means (15, 16) is detachably engaged with lifting areas integrated in a bottom structure of a said load carrying structure of said nacelle, said lifting areas being a part of the load carrying structure or being rigidly connected to said load carrying structure, and wherein at least one of said lifting means (15, 16) further comprises displacing means enabling displacement at least in a horizontal plane of said lifting means (15, 16) or a part of said lifting means (15, 16). a wind turbine nacelle with a load carrying structure configured for carrying the weight of the nacelle and the nacelle components mounted in said nacelle such as generator, gear, and/or bearings, two or more lifting means (15, 16) for displacing said nacelle substantially vertically during said self-loading or self-unloading of said nacelle, wherein at least one of said lifting means (15, 16) is detachably engaged with lifting areas integrated in a bottom structure of a said load carrying structure of said nacelle, said lifting areas being a part of the load carrying structure or being rigidly connected to said load carrying structure, and wherein at least one of said lifting means (15, 16) further comprises displacing means enabling displacement at least in a horizontal plane of said lifting means (15, 16) or a part of said lifting means (15, 16).
Hub for at least partially muscle-powered vehicles and in particular bicycles, comprising a hollow hub axle with a substantially cylindrical inner through hole for the passage of a clamping axle, a hub shell rotatably supported relative to the hub axle by at least two hub bearings (14, 24), a rotor rotatably supported relative to the hub axle, and a freewheel device with a hub-side freewheel component and a rotor-side freewheel component, each comprising axial engagement components for engagement with one another, wherein the hub shell is rotatably supported relative to the hub axle in a rotor-side end region by a rotor-side hub bearing, and in an opposite end region of the hub shell, by at least one further hub bearing, wherein the hub axle substantially shows a cylindrical inner surface, and wherein the hub-side freewheel component is non-rotatably connected with the hub shell, and wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position, wherein the rotor-side freewheel component is biased in the engagement position through at least one biasing device, and wherein the engagement components are each configured on the front face, wherein the rotor-side hub bearing is accommodated in an axially longitudinal section of the hub axle having a diameter that is enlarged compared to a central region of the hub axle, in a bearing seat of the hollow hub axle, and that the axially longitudinal section is shorter than 30 mm, and that the clear inner diameter of the hub axle varies over the length of the hub axle by less than 1.5 mm. wherein the hub shell is rotatably supported relative to the hub axle in a rotor-side end region by a rotor-side hub bearing, and in an opposite end region of the hub shell, by at least one further hub bearing, wherein the hub axle substantially shows a cylindrical inner surface, and wherein the hub-side freewheel component is non-rotatably connected with the hub shell, and wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position, wherein the rotor-side freewheel component is biased in the engagement position through at least one biasing device, and wherein the engagement components are each configured on the front face, wherein the rotor-side hub bearing is accommodated in an axially longitudinal section of the hub axle having a diameter that is enlarged compared to a central region of the hub axle, in a bearing seat of the hollow hub axle, and that the axially longitudinal section is shorter than 30 mm, and that the clear inner diameter of the hub axle varies over the length of the hub axle by less than 1.5 mm.
A MEMS actuator (150; 350; 500; 600; 650; 680; 700; 850; 950) comprising: - a substrate (50'; 390; 525; 730) surrounding a cavity (100; 410; 515; 715); - a deformable structure (105; 520; 720; 855) suspended on the cavity; - an actuation structure (65; 535; 740) comprising a first piezoelectric region (61; 539; 741) of a first piezoelectric material, supported by the deformable structure and configured to cause a deformation of the deformable structure; and - a detection structure (90; 536; 745) comprising a second piezoelectric region (80; 547; 754) of a second piezoelectric material, supported by the deformable structure and configured to detect the deformation of the deformable structure, characterized in that the MEMS actuator further comprises a passivation region (81; 550), which surrounds the actuation structure (65; 535) and is formed of the second piezoelectric material. - a substrate (50'; 390; 525; 730) surrounding a cavity (100; 410; 515; 715); - a deformable structure (105; 520; 720; 855) suspended on the cavity; - an actuation structure (65; 535; 740) comprising a first piezoelectric region (61; 539; 741) of a first piezoelectric material, supported by the deformable structure and configured to cause a deformation of the deformable structure; and - a detection structure (90; 536; 745) comprising a second piezoelectric region (80; 547; 754) of a second piezoelectric material, supported by the deformable structure and configured to detect the deformation of the deformable structure,
An apparatus for raising a flowing water driven turbine relative to a turbine support (202a, 202b), the apparatus comprising: a turbine mount; a turbine mounted on the turbine mount; means for providing an upward force to raise the turbine above the expected waterline of the turbine support from a position below the expected position of the waterline; and a guidance means; wherein the guidance means is engaged with the turbine mount, and the turbine is moveable in a path defining an arc about a pitch or roll axis in response to the upward force by virtue of the engagement between the guidance means and the support (202a, 202b); the apparatus being characterised by means which cause a rotation of the turbine about a yaw axis for a portion of the upward movement of the turbine when the upward force is applied. a turbine mount; a turbine mounted on the turbine mount; means for providing an upward force to raise the turbine above the expected waterline of the turbine support from a position below the expected position of the waterline; and a guidance means; wherein the guidance means is engaged with the turbine mount, and the turbine is moveable in a path defining an arc about a pitch or roll axis in response to the upward force by virtue of the engagement between the guidance means and the support (202a, 202b); the apparatus being characterised by means which cause a rotation of the turbine about a yaw axis for a portion of the upward movement of the turbine when the upward force is applied.
Alphavirus replicon particles expressing IL-12 for use in a method of enhancing an immune response to an antigen administered to a subject, the use comprising administering to the subject, at the same time and in the same location, the antigen and the alphavirus replicon particles expressing IL-12, wherein the alphavirus replicon particles are derived from Venezuelan Equine Encephalitis virus replicon particles.