mhurhangee/ep-ind-claims huggingface dataset:
A tissue stabilization and repair device, comprising: an elongated cannula extending from a proximal end to a distal end and defining a lumen including an opening at the distal end; and a tissue engagement structure attached to the cannula and extending distally beyond the opening, the tissue engagement structure including a base portion and a tissue engaging portion wherein the tissue engaging portion extends from the base portion, and the base portion is positioned between the opening and the tissue engaging portion, and further characterized in that the tissue engaging portion includes a plurality of teeth (40, 42, 44) an elongated cannula extending from a proximal end to a distal end and defining a lumen including an opening at the distal end; and a tissue engagement structure attached to the cannula and extending distally beyond the opening, the tissue engagement structure including a base portion and a tissue engaging portion wherein the tissue engaging portion extends from the base portion, and the base portion is positioned between the opening and the tissue engaging portion, and further characterized in that the tissue engaging portion includes a plurality of teeth (40, 42, 44)
A wearable ophthalmic device, comprising: an outward facing head-mounted light field camera configured to receive light from a user's surroundings and to generate numerical light field image data; a light field processor configured to access the numerical light field image data, to obtain an optical prescription for an eye of the user, and to computationally introduce an amount of positive or negative optical power to the numerical light field image data based on the optical prescription to generate modified numerical light field image data, wherein the light field processor is configured to generate the optical prescription by: computationally introducing a first test amount of positive or negative optical power to the numerical light field image data; receiving feedback from the user regarding the first test amount of positive or negative optical power; and computationally introducing a second test amount of positive or negative optical power to the light field image data; and a head-mounted light field display configured to generate a physical light field corresponding to the modified numerical light field image data. an outward facing head-mounted light field camera configured to receive light from a user's surroundings and to generate numerical light field image data; a light field processor configured to access the numerical light field image data, to obtain an optical prescription for an eye of the user, and to computationally introduce an amount of positive or negative optical power to the numerical light field image data based on the optical prescription to generate modified numerical light field image data, wherein the light field processor is configured to generate the optical prescription by: computationally introducing a first test amount of positive or negative optical power to the numerical light field image data; receiving feedback from the user regarding the first test amount of positive or negative optical power; and computationally introducing a second test amount of positive or negative optical power to the light field image data; and a head-mounted light field display configured to generate a physical light field corresponding to the modified numerical light field image data. computationally introducing a first test amount of positive or negative optical power to the numerical light field image data; receiving feedback from the user regarding the first test amount of positive or negative optical power; and computationally introducing a second test amount of positive or negative optical power to the light field image data; and a head-mounted light field display configured to generate a physical light field corresponding to the modified numerical light field image data.
An engine arrangement comprising: - an internal combustion engine and an exhaust line capable of collecting exhaust gases from said engine; - an exhaust gases after-treatment system comprising an injection device designed to inject an exhaust treatment fluid inside the exhaust line for at least partially removing undesired components from the exhaust gases - a heat recovery circuit carrying a fluid in a loop, successively through at least a pump, an evaporator, and an expander capable of generating power from the fluid expansion; characterized in that the exhaust treatment fluid is the fluid carried by the heat recovery circuit, or derived therefrom, and in that a connecting line is branched from the heat recovery circuit and designed to supply the injection device with said exhaust treatment fluid. - an internal combustion engine and an exhaust line capable of collecting exhaust gases from said engine; - an exhaust gases after-treatment system comprising an injection device designed to inject an exhaust treatment fluid inside the exhaust line for at least partially removing undesired components from the exhaust gases - a heat recovery circuit carrying a fluid in a loop, successively through at least a pump, an evaporator, and an expander capable of generating power from the fluid expansion;
System for determining at least one calculated process parameter (P C) of a fluid in a pipe, comprising: a data interface, configured for receiving nominal process parameters (P N), wherein the nominal process parameters (P N) relate to nominal parameters of a process that relates to the fluid in the pipe; an invasive temperature sensor, configured for determining a fluid temperature (T F) of the fluid in the pipe; a reference temperature sensor disposed outside of the pipe, configured for determining a reference temperature (T R) outside of the pipe; a surface temperature sensor disposed at a surface of the pipe, configured for determining a surface temperature (T S) of the pipe; a process model, configured for determining at least one calculated process parameter (P C) of the fluid in the pipe by using the determined reference temperature (T R), the determined surface temperature (T S), the received nominal process parameters (P N) and the determined fluid temperature (T F). a data interface, configured for receiving nominal process parameters (P N), wherein the nominal process parameters (P N) relate to nominal parameters of a process that relates to the fluid in the pipe; an invasive temperature sensor, configured for determining a fluid temperature (T F) of the fluid in the pipe; a reference temperature sensor disposed outside of the pipe, configured for determining a reference temperature (T R) outside of the pipe; a surface temperature sensor disposed at a surface of the pipe, configured for determining a surface temperature (T S) of the pipe; a process model, configured for determining at least one calculated process parameter (P C) of the fluid in the pipe by using the determined reference temperature (T R), the determined surface temperature (T S), the received nominal process parameters (P N) and the determined fluid temperature (T F).
An optical fiber route search method that confirms a path of one optical fiber which has only two opposite ends, for which there is no optical power division on an optical transmission line and which is arranged in a space so as to include at least one proximity portion in which the optical fiber is in proximity to itself, wherein the proximity portion is a portion in which wires of the optical fiber are parallel to each other, branch out, or intersect with each other, the optical fiber route search method comprising: performing optical measurement of inputting test light to the optical fiber while applying a disturbance to an arbitrary section of the optical fiber, wherein the disturbance is applied to a first arbitrary section of the optical fiber and applied to a second arbitrary section by changing the position in which the disturbance is applied, and obtaining a distribution of response light of the test light in a length direction of the optical fiber; performing a singularity detection of detecting a change in a number of singularities that appear in the distribution of the response light based on a position of the optical fiber in which the disturbance has been applied; and performing a determination of determining that the proximity portion exists in the position of the optical fiber in which the disturbance has been applied when the number of the singularities has changed due to a change in a position of application of the disturbance, and estimating a status of an arrangement of the optical fiber connecting to the proximity portion. performing optical measurement of inputting test light to the optical fiber while applying a disturbance to an arbitrary section of the optical fiber, wherein the disturbance is applied to a first arbitrary section of the optical fiber and applied to a second arbitrary section by changing the position in which the disturbance is applied, and obtaining a distribution of response light of the test light in a length direction of the optical fiber; performing a singularity detection of detecting a change in a number of singularities that appear in the distribution of the response light based on a position of the optical fiber in which the disturbance has been applied; and performing a determination of determining that the proximity portion exists in the position of the optical fiber in which the disturbance has been applied when the number of the singularities has changed due to a change in a position of application of the disturbance, and estimating a status of an arrangement of the optical fiber connecting to the proximity portion.
Apparatus for injection moulding a synthetic material moulded part onto a functional part so as to form a multi-component part, comprising an injection mould which has a mould opening for receiving the functional part in regions, the injection mould having at least three mould plates (6a, 6b, 6c) which can be adjusted between a closed injection position and a processing position with mould plates (6a, 6b, 6c) spaced apart from one another in each case, a functional part carrier being provided which can be positioned between a functional part store and a first opening region between two mould plates (6b, 6c) in the processing position thereof, in order to transfer the functional parts from the functional part store to one of the mould plates, and a withdrawal gripper being provided for withdrawal of the multi-component part from a second opening region between two mould plates (6a, 6b), characterised in that injection mandrels are disposed on the nozzle-side mould plate, pass through a respective aperture in the middle mould plate and thus form therewith the hollow cylindrical mould opening so that the synthetic material moulded parts can stay retained with the injected functional parts during opening of the injection mould at the injection mandrels of the nozzle-side mould plate, can then be gripped by the withdrawal gripper, pulled from the injection mandrels and removed from the second opening region of the injection mould.
Vehicle chassis for a land vehicle, in particular for a motor home or leisure vehicle, wherein the vehicle chassis comprises a front chassis module, in particular a traction unit, and a rear chassis module, wherein the front chassis module is connected to the rear chassis module via at least one flange means (7a, 7b) to form the vehicle chassis, and wherein the rear chassis module or a sub-module comprises supporting components made of lightweight material, characterized in that the supporting components take the form of longitudinal profiles (8a, 8b, 10a, 10b, 21a, 21b, 24a, 24b, 40, 41, 50, 51, 62, 63, 72, 73) and of Z profiles, in that four longitudinal profiles are formed and the arrangement of the Z profiles is mirrored on a vertical plane of symmetry in the centre of the vehicle.
A gearbox for a tap changer, which gearbox has an input drive shaft arranged to be connected to a motor and includes a diverter switch drive output with a diverter shaft, which diverter switch drive output is arranged to be connected for actuation of breakers in a diverter switch of the tap changer, wherein the gearbox further includes - first and second selector arm drive outputs, arranged for actuation of a tap selector of the tap changer, - reduction gear means (11, 71) connecting the input drive shaft to the diverter switch drive output and to each of the selector arm drive outputs (4, 5) - timing connection means arranged to connect the reduction gear means to each of the selector arm outputs (4, 5), characterised in that the gearbox is arranged such that a plurality of revolutions of the input drive shaft completes one operation cycle for the tap changer, during which operation cycle the diverter switch drive output rotates 150° to 180°, and during which operation cycle in a first mode one of the selector arm outputs (4, 5) rotates an angle in the range of 90° to 180°, which rotation occurs during a fraction of the operation cycle and the other is stationary, and during which operation cycle in a second mode both the selector arm outputs (4, 5) are stationary, whereby the first mode represents that the input drive shaft rotates in the same direction as in the nearest preceding operation cycle, and the second mode represents that the input drive shaft rotates in the opposite direction as in the nearest preceding operation cycle. - first and second selector arm drive outputs, arranged for actuation of a tap selector of the tap changer, - reduction gear means (11, 71) connecting the input drive shaft to the diverter switch drive output and to each of the selector arm drive outputs (4, 5) - timing connection means arranged to connect the reduction gear means to each of the selector arm outputs (4, 5),
A powershift transmission, with - a drive shaft, - a first gear wheel and a second gear wheel, which in each case are arranged rotatably on the drive shaft, - a layshaft/output shaft, - a third gear wheel which is arranged non-rotationally on the layshaft/output shaft and which meshes with the first gear wheel, - a fourth gear wheel which is arranged non-rotationally on the layshaft/output shaft and which meshes with the second gear wheel, - a first positively-locking element which is arranged non-rotationally and displaceably on the drive shaft - and which in a first selection position is uncoupled from the first gear wheel - and which in a second selection position is rotationally coupled with the first gear wheel, wherein the first positively-locking element in the second selection position - in a first direction of rotation of the first gear wheel is rotationally coupled with the first gear wheel, and - in a second direction of rotation of the first gear wheel opposed to the first direction of rotation is uncoupled from the first gear wheel by way of a freewheel, and wherein a second positively-locking element is provided which is arranged non-rotationally and displaceably on the drive shaft, and wherein the second positively-locking element can assume a first selection position in which it is coupled non-rotationally with the first gear wheel, characterised in that the second positively-locking element in the first selection position extends through or over the first positively-locking element. - a drive shaft, - a first gear wheel and a second gear wheel, which in each case are arranged rotatably on the drive shaft, - a layshaft/output shaft, - a third gear wheel which is arranged non-rotationally on the layshaft/output shaft and which meshes with the first gear wheel, - a fourth gear wheel which is arranged non-rotationally on the layshaft/output shaft and which meshes with the second gear wheel, - a first positively-locking element which is arranged non-rotationally and displaceably on the drive shaft - and which in a first selection position is uncoupled from the first gear wheel - and which in a second selection position is rotationally coupled with the first gear wheel, wherein the first positively-locking element in the second selection position - and which in a first selection position is uncoupled from the first gear wheel - and which in a second selection position is rotationally coupled with the first gear wheel, - in a first direction of rotation of the first gear wheel is rotationally coupled with the first gear wheel, and - in a second direction of rotation of the first gear wheel opposed to the first direction of rotation is uncoupled from the first gear wheel by way of a freewheel, and wherein
A power module comprising: a substrate having an electronic element and at least one metal terminal disposed on a top surface thereof; and a modular housing structure disposed on the substrate and located around the electronic element, wherein the modular housing structure (3, 3a, 3b, 3c, 3d, 3e, 3f, 3g, 3h, 3i, 3j, 3k, 3m, 3n) comprises a plurality of sidewalls (31, 32, 35, 36) configured to connect with each other detachably, and each sidewall (31, 32, 35, 36) comprises two connecting elements (311, 312, 321, 322, 351, 352, 361, 362) disposed on two opposite ends thereof respectively, wherein the two connecting elements (311, 312, 321, 322, 351, 352, 361, 362) of any one of the sidewalls (31, 32, 35, 36) are connected to two corresponding connecting elements (311, 312, 321, 322, 351, 352, 361, 362) of two adjacent sidewalls (31, 32, 35, 36) respectively, wherein the modular housing structure (3, 3a, 3b, 3c, 3d, 3e, 3f, 3g, 3h, 3i, 3i, 3k, 3m, 3n) further comprises at least one cover (33, 37) opposite to the substrate and connected to the plurality of sidewalls (31, 32, 35, 36), wherein the cover comprises at least one through-opening, and the metal terminal is connected with the substrate and passes through the through-opening of the cover, wherein the through-opening comprises an upper through hole, a middle through hole and a lower through hole, wherein the radius of the middle through hole is smaller than the radii of the upper through hole and the lower through hole. a substrate having an electronic element and at least one metal terminal disposed on a top surface thereof; and a modular housing structure disposed on the substrate and located around the electronic element, wherein the modular housing structure (3, 3a, 3b, 3c, 3d, 3e, 3f, 3g, 3h, 3i, 3j, 3k, 3m, 3n) comprises a plurality of sidewalls (31, 32, 35, 36) configured to connect with each other detachably, and each sidewall (31, 32, 35, 36) comprises two connecting elements (311, 312, 321, 322, 351, 352, 361, 362) disposed on two opposite ends thereof respectively, wherein the two connecting elements (311, 312, 321, 322, 351, 352, 361, 362) of any one of the sidewalls (31, 32, 35, 36) are connected to two corresponding connecting elements (311, 312, 321, 322, 351, 352, 361, 362) of two adjacent sidewalls (31, 32, 35, 36) respectively, wherein the modular housing structure (3, 3a, 3b, 3c, 3d, 3e, 3f, 3g, 3h, 3i, 3i, 3k, 3m, 3n) further comprises at least one cover (33, 37) opposite to the substrate and connected to the plurality of sidewalls (31, 32, 35, 36), wherein the cover comprises at least one through-opening, and the metal terminal is connected with the substrate and passes through the through-opening of the cover, wherein the through-opening comprises an upper through hole, a middle through hole and a lower through hole, wherein the radius of the middle through hole is smaller than the radii of the upper through hole and the lower through hole.
A baseband communications transceiver, comprising an analog front end transmitter section, AFE TX, comprising a digital to analog converter, DAC, and a transmission, TX, driver; an analog front end receiver section, AFE RX, comprising an analog-to-digital converter, ADC,; at least one equalizer (310, 220, 230), which is arranged downstream of the AFE RX and implemented on the basis of an adaptive filter; at least one loss encoder (410, 420, 670), which is coupled to the at least one equalizer and configured to determine loss value data indicative of a signal loss on the communication channel based on filter coefficients of the adaptive filter (310, 220, 230); and a channel monitoring block, which is configured to receive the loss value data from the at least one loss encoder (410, 420, 670) and to determine an amplitude control signal, which is provided to control the amplitude of analog signals generated by the TX driver of the AFE TX.
A method of detecting an azido-modified biomolecule, comprising: a) forming an azide-alkyne cycloaddition reaction mixture comprising: a reporter molecule that comprises a terminal alkyne moiety; an azido-modified biomolecule; copper ions; at least one reducing agent; and a copper chelator selected from the group consisting of bathocuproine disulfonic acid (2,9-dimethyl-4,7-diphenyl-1,10-phenanthroline disulfonate), N,N,N',N'-tetrakis(2-pyridylmethyl)ethylenediamine (TPEN), EDTA and neocuproine; b) incubating the azide-alkyne cycloaddition reaction mixture for a sufficient amount of time to form a biomolecule-reporter molecule conjugate; c) separating the biomolecule-reporter molecule conjugate by size and/or weight of the biomolecule-reporter molecule conjugate to form a separated biomolecule-reporter molecule conjugate; d) illuminating the separated biomolecule-reporter molecule conjugate with an appropriate wavelength to form an illuminated biomolecule-reporter molecule conjugate; and e) observing the illuminated biomolecule-reporter molecule conjugate wherein the biomolecule is detected. a) forming an azide-alkyne cycloaddition reaction mixture comprising: a reporter molecule that comprises a terminal alkyne moiety; an azido-modified biomolecule; copper ions; at least one reducing agent; and a copper chelator selected from the group consisting of bathocuproine disulfonic acid (2,9-dimethyl-4,7-diphenyl-1,10-phenanthroline disulfonate), N,N,N',N'-tetrakis(2-pyridylmethyl)ethylenediamine (TPEN), EDTA and neocuproine; a reporter molecule that comprises a terminal alkyne moiety; an azido-modified biomolecule; copper ions; at least one reducing agent; and a copper chelator selected from the group consisting of bathocuproine disulfonic acid (2,9-dimethyl-4,7-diphenyl-1,10-phenanthroline disulfonate), N,N,N',N'-tetrakis(2-pyridylmethyl)ethylenediamine (TPEN), EDTA and neocuproine; b) incubating the azide-alkyne cycloaddition reaction mixture for a sufficient amount of time to form a biomolecule-reporter molecule conjugate; c) separating the biomolecule-reporter molecule conjugate by size and/or weight of the biomolecule-reporter molecule conjugate to form a separated biomolecule-reporter molecule conjugate; d) illuminating the separated biomolecule-reporter molecule conjugate with an appropriate wavelength to form an illuminated biomolecule-reporter molecule conjugate; and e) observing the illuminated biomolecule-reporter molecule conjugate wherein the biomolecule is detected.