mhurhangee/ep-ind-claims huggingface dataset:
Cardan-joint shaft comprising a first articulated shaft section and a second articulated shaft section and respective bearing straps, which are each fastened, particularly by means of screw connections, to a fastening region of the first and second articulated shaft section (2, 3) and which each project at one end beyond the respectively associated first or second articulated shaft section (2, 3) and in this projection region retain therebetween an integrally constructed pin cross mounted by a respective pin in an opening of each bearing strap, characterised in that each bearing strap mechanically positively engages at least regionally in a respective one of two diametrically opposite recesses, which are formed in the fastening region in the circumferential surface of the first and second articulated shaft section (2, 3) so as to be able to transmit force and which are each formed as an open key groove, and that the region, which does not project beyond the respective associated first or second articulated joint shaft (2, 3), of each bearing strap has a key formed to correspond with the respectively associated recess or key groove or is constructed as a key formed to correspond with the respectively associated recess or key groove, wherein the lateral boundary walls of each recess or key groove are formed to run in axial direction of the recess with slightly wedge-shaped convergence towards one another beginning at the respectively associated end surface of the first or second articulated shaft section (2, 3) up to the opposite, rear wall.
A ladder comprising: a first rail assembly comprising: a pair of inner rails and a pair of outer rails, the pair of inner rails being slidably disposed in a upper portion of pair of outer rails, a first plurality of rungs coupled between the pair of inner rails, a second plurality of rungs coupled between the pair of outer rails, a pair of leveler mechanisms, each leveler mechanism associated with one of the pair of outer rails, each leveler mechanism comprising: a leg member slidably disposed within a lower portion of its associated outer rail; and an actuating mechanism; characterised in that: the actuating mechanism is configured to enable longitudinal movement in a first direction and a second, opposite direction when actuated, but allow movement in only the first direction when not actuated, wherein the actuating mechanism includes a first engagement pin and a second engagement pin, each of the first and second engagement pins being sized and configured to engage openings formed in the leg member; and in that the leveler mechanism further comprises a spring to maintain a biasing force on the leg member in the second direction; wherein the openings include a first column of openings and a second column of openings, and wherein the first column of openings is longitudinally offset from the second column of openings. a first rail assembly comprising: a pair of inner rails and a pair of outer rails, the pair of inner rails being slidably disposed in a upper portion of pair of outer rails, a first plurality of rungs coupled between the pair of inner rails, a second plurality of rungs coupled between the pair of outer rails, a pair of inner rails and a pair of outer rails, the pair of inner rails being slidably disposed in a upper portion of pair of outer rails, a first plurality of rungs coupled between the pair of inner rails, a second plurality of rungs coupled between the pair of outer rails, a pair of leveler mechanisms, each leveler mechanism associated with one of the pair of outer rails, each leveler mechanism comprising: a leg member slidably disposed within a lower portion of its associated outer rail; and an actuating mechanism; characterised in that: a leg member slidably disposed within a lower portion of its associated outer rail; and an actuating mechanism; characterised in that: the actuating mechanism is configured to enable longitudinal movement in a first direction and a second, opposite direction when actuated, but allow movement in only the first direction when not actuated, wherein the actuating mechanism includes a first engagement pin and a second engagement pin, each of the first and second engagement pins being sized and configured to engage openings formed in the leg member; and in that the leveler mechanism further comprises a spring to maintain a biasing force on the leg member in the second direction; wherein the openings include a first column of openings and a second column of openings, and wherein the first column of openings is longitudinally offset from the second column of openings.
A probe mixture for real-time detection and simultaneous multiple detection of target nucleic acids comprising at least one detection probe and at least one clamping probe for inhibiting amplification of wild type genes or unwanted genes characterized in that an amino acid or a side chain of said amino acid is attached to the detection probe or clamping probe to structurally modify the probe, wherein the structurally modified probe is PNA, and the amino acid is selected from the group consisting of L-glutamic acid, D-glutamic acid, L-alanine, D-alanine, L-lysine and D-lysine.
An apparatus for controlling a work machine of a work vehicle, comprising: a speed sensor configured to measure a speed of the work vehicle; an electric main controller valve configured to convert an input signal of a joystick (321; 322) into an output current for controlling a proportional valve (P/V) for operating the work machine; and a control unit configured to receive information on a speed of the work vehicle from the speed sensor, characterized in that the control unit can select a work machine control curve, and control the output current of the electric main controller valve based on the speed of the work vehicle and the selected work machine control curve, wherein the control unit is configured to determine whether the speed of the work vehicle is equal to or larger or smaller than a reference speed, and to control an operation time point or an end time point of the work machine based on the determination, wherein the control unit is configured when the speed of the work vehicle is equal to or larger than the reference speed to convert the output current based on the selected work machine control curve and to delay a reaction of the work machine compared to a reaction at the reference speed, and when the speed of the work vehicle is smaller than the reference speed, to convert the output current based on the selected work machine control curve and to control the reaction of the work machine to be advanced compared to the reaction at the reference speed. a speed sensor configured to measure a speed of the work vehicle; an electric main controller valve configured to convert an input signal of a joystick (321; 322) into an output current for controlling a proportional valve (P/V) for operating the work machine; and a control unit configured to receive information on a speed of the work vehicle from the speed sensor,
Coating composition comprising a mineral blend and no greater than about 1.0 wt. % TiO 2, based on the total weight of the coating composition, wherein the mineral blend comprises: ground calcium carbonate as a matting mineral, a whitening mineral or both; and calcined kaolin, for example flash calcined kaolin, as an opacifying mineral, a whitening mineral or both; wherein the ground calcium carbonate is blocky and non-porous; and has a d 50 of 3.0 - 7.0 μm, and wherein the d 50 particle size is measured by the method set out in the description. ground calcium carbonate as a matting mineral, a whitening mineral or both; and calcined kaolin, for example flash calcined kaolin, as an opacifying mineral, a whitening mineral or both; wherein the ground calcium carbonate is blocky and non-porous; and has a d 50 of 3.0 - 7.0 μm, and wherein the d 50 particle size is measured by the method set out in the description.
A method for disposing of spent bleaching earth comprising: combining and mixing spent bleaching earth obtained from edible oil processing with a salt component, a binding agent composition, and water; wherein the amount of spent bleaching earth is 10-35% by weight; wherein the amount of the salt component is 50-85% by weight; wherein the amount of binding agent composition is 5-15% by weight; and wherein the mixture is not spontaneously combustible at atmospheric temperatures. combining and mixing spent bleaching earth obtained from edible oil processing with a salt component, a binding agent composition, and water; wherein the amount of spent bleaching earth is 10-35% by weight; wherein the amount of the salt component is 50-85% by weight; wherein the amount of binding agent composition is 5-15% by weight; and wherein the mixture is not spontaneously combustible at atmospheric temperatures.
An applicator comprising: an applicator part (30; 30A) having a mechanism for discharging or applying a content liquid; a reservoir charged with the content liquid; and an extrusion device having a mechanism for extruding the content liquid to the applicator part (30; 30A), wherein a flow passage that connects the applicator part (30; 3A) and the reservoir is provided, by extruding the content liquid inside the reservoir by means of the extrusion device, the content liquid is discharged from the applicator part (30; 30A) as passing through the flow passage communicating between the applicator part (30; 30A) and the reservoir, the applicator part (30; 30A) has a conical part (31; 31A) formed in an approximate conical shape, a liquid flow passage connected to the flow passage is provided inside the applicator part (30; 30A), the liquid flow passage having a cylindrical passage connected to the flow passage and an approximate conical passage tapered toward a front side similar to the conical part (31; 31A), a slit (35; 35A) connecting the liquid flow passage is formed on an outer side of the conical part (31; 31A), and wherein the applicator part (30; 30A) has a flange part on a rear end portion of the applicator part (30; 30A), the flange part being used for fixing the applicator part (30; 30A) in the applicator. an applicator part (30; 30A) having a mechanism for discharging or applying a content liquid; a reservoir charged with the content liquid; and an extrusion device having a mechanism for extruding the content liquid to the applicator part (30; 30A), wherein a flow passage that connects the applicator part (30; 3A) and the reservoir is provided, by extruding the content liquid inside the reservoir by means of the extrusion device, the content liquid is discharged from the applicator part (30; 30A) as passing through the flow passage communicating between the applicator part (30; 30A) and the reservoir, the applicator part (30; 30A) has a conical part (31; 31A) formed in an approximate conical shape, a liquid flow passage connected to the flow passage is provided inside the applicator part (30; 30A), the liquid flow passage having a cylindrical passage connected to the flow passage and an approximate conical passage tapered toward a front side similar to the conical part (31; 31A), a slit (35; 35A) connecting the liquid flow passage is formed on an outer side of the conical part (31; 31A), and wherein the applicator part (30; 30A) has a flange part on a rear end portion of the applicator part (30; 30A), the flange part being used for fixing the applicator part (30; 30A) in the applicator.
A control device for controlling distribution of power to load elements (60-1 to 60-4) connected to a Power over Ethernet, PoE, network switch, via LAN network connections, wherein said control device is adapted to discover a PoE network switch it is connected to by employing a network scan and probing for its own network address in cache tables of a network management protocol compatible network switch; wherein said control device stores in a lookup table LAN ports (55-1 to 55-4) of the PoE network switch, and when the load devices and the control device are connected to said PoE network switch they are automatically paired to each other, and wherein said control device is adapted to issue control commands of a network management protocol to said detected PoE network switch in order to switch on or off the LAN ports (55-1 to 55-4) of said PoE network switch, through which said power is supplied to respective ones of said load elements (60-1 to 60-4), wherein said network management protocol is the Simple Network Management Protocol, SNMP, wherein Power over Ethernet, PoE, is used for said distribution of power.
A system for ablation planning, the system comprising: a display; and a processor configured to: compute multiple forecasted local activation times (LATs) at different respective locations on cardiac tissue of a subject, by simulating a propagation of a physiological activation potential along the cardiac tissue with a particular portion of the cardiac tissue, which is currently conductive, being non-conductive, based on the forecasted LATs, generate a forecasted electroanatomical map representing a forecasted state of the cardiac tissue following an ablation of the particular portion of the cardiac tissue, and display the forecasted electroanatomical map on the display, wherein the processor is configured to simulate the propagation of the activation potential by evolving a cellular automata model, which represents the cardiac tissue, over multiple iterations, wherein cells of the cellular automata model have conduction velocities based on conduction velocities computed during generation of a current electroanatomical map, and wherein the processor is configured to compute the forecasted LATs in response to identifying respective ones of the iterations during which cells of the model are first active. a display; and a processor configured to: compute multiple forecasted local activation times (LATs) at different respective locations on cardiac tissue of a subject, by simulating a propagation of a physiological activation potential along the cardiac tissue with a particular portion of the cardiac tissue, which is currently conductive, being non-conductive, based on the forecasted LATs, generate a forecasted electroanatomical map representing a forecasted state of the cardiac tissue following an ablation of the particular portion of the cardiac tissue, and display the forecasted electroanatomical map on the display, compute multiple forecasted local activation times (LATs) at different respective locations on cardiac tissue of a subject, by simulating a propagation of a physiological activation potential along the cardiac tissue with a particular portion of the cardiac tissue, which is currently conductive, being non-conductive, based on the forecasted LATs, generate a forecasted electroanatomical map representing a forecasted state of the cardiac tissue following an ablation of the particular portion of the cardiac tissue, and display the forecasted electroanatomical map on the display, wherein the processor is configured to simulate the propagation of the activation potential by evolving a cellular automata model, which represents the cardiac tissue, over multiple iterations, wherein cells of the cellular automata model have conduction velocities based on conduction velocities computed during generation of a current electroanatomical map, and wherein the processor is configured to compute the forecasted LATs in response to identifying respective ones of the iterations during which cells of the model are first active.
A computer-implemented method for predicting risks of radiation-induced toxicity associated with a radiotherapy treatment of a target region of a patient, the method comprising: - receiving data associated with a region of interest comprising the target region, wherein the received data comprises a predefined dose map of the radiotherapy treatment and pre-radiotherapy-treatment imaging data of the region of interest; - applying a trained machine-learning algorithm to the received data; and - generating, by the trained machine-learning algorithm, at least one toxicity indicator based on the received data, wherein the at least one toxicity indicator is indicative of the risks of the radiation-induced toxicity, wherein the trained machine-learning algorithm is trained using the method of any one of claims 7-15. - receiving data associated with a region of interest comprising the target region, wherein the received data comprises a predefined dose map of the radiotherapy treatment and pre-radiotherapy-treatment imaging data of the region of interest; - applying a trained machine-learning algorithm to the received data; and - generating, by the trained machine-learning algorithm, at least one toxicity indicator based on the received data, wherein the at least one toxicity indicator is indicative of the risks of the radiation-induced toxicity,
An apparatus for use in a wellbore, comprising: a bottomhole assembly having at least one sensor for determining a parameter of interest: and a drilling motor configured to rotate a drill bit attached to an end of the bottomhole assembly; wherein the drilling motor includes a stator (700, 800) having an inner lobed surface (722, 822) and a rotor (500, 600) having an outer lobed surface (522, 622) and disposed within the stator (700, 800), and characterized in that at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600) includes a sealing material (524, 624, 724, 824) on a first contacting section of the respective at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600) and a metallic surface on a second contacting section of the respective at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600), wherein the first contacting section is a middle section (520, 620, 720, 820) and the second contacting section is an end section (510, 610, 710, 810) of the respective inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600). a bottomhole assembly having at least one sensor for determining a parameter of interest: and a drilling motor configured to rotate a drill bit attached to an end of the bottomhole assembly; wherein the drilling motor includes a stator (700, 800) having an inner lobed surface (722, 822) and a rotor (500, 600) having an outer lobed surface (522, 622) and disposed within the stator (700, 800), and characterized in that at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600) includes a sealing material (524, 624, 724, 824) on a first contacting section of the respective at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600) and a metallic surface on a second contacting section of the respective at least one of the inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600), wherein the first contacting section is a middle section (520, 620, 720, 820) and the second contacting section is an end section (510, 610, 710, 810) of the respective inner lobed surface (722, 822) of the stator (700, 800) and the outer lobed surface (522, 622) of the rotor (500, 600).
An electronic device comprising: a first metal plate configured to form at least a part of a metal bezel which is a rim of a housing of the electronic device, wherein the at least the part of the metal bezel consists of the first metal plate; a second metal plate disposed to be spaced apart from the first metal plate and comprising a contact terminal; a dielectric member interposed between the first metal plate and the second metal plate; and a substrate electrically connected through the contact terminal, wherein a capacitance is generated by the first metal plate, the second metal plate, and the dielectric member, wherein the first metal plate, the second metal plate, and the dielectric member form at least a part of an antenna, and the capacitance is a factor that determines a antenna resonance property of the antenna. a first metal plate configured to form at least a part of a metal bezel which is a rim of a housing of the electronic device, wherein the at least the part of the metal bezel consists of the first metal plate; a second metal plate disposed to be spaced apart from the first metal plate and comprising a contact terminal; a dielectric member interposed between the first metal plate and the second metal plate; and a substrate electrically connected through the contact terminal, wherein a capacitance is generated by the first metal plate, the second metal plate, and the dielectric member, wherein the first metal plate, the second metal plate, and the dielectric member form at least a part of an antenna, and the capacitance is a factor that determines a antenna resonance property of the antenna.
A vascular repair device, comprising: a tubular graft body having a proximal end and a distal end; a structural framework having at least two stents; a first of the stents being connected to the tubular graft body along an entirety of the first stent; a second of the stents, at the proximal end of the tubular graft body having a shape that is a periodically changing shape to define proximal apices having given radii of curvature (β) and distal apices having radii of curvature (α) smaller than said given radii of curvature (β) of the proximal apices; and the second stent being connected to the tubular graft body at the distal apices. a tubular graft body having a proximal end and a distal end; a structural framework having at least two stents; a first of the stents being connected to the tubular graft body along an entirety of the first stent; a second of the stents, at the proximal end of the tubular graft body having a shape that is a periodically changing shape to define proximal apices having given radii of curvature (β) and distal apices having radii of curvature (α) smaller than said given radii of curvature (β) of the proximal apices; and the second stent being connected to the tubular graft body at the distal apices.