mhurhangee/patent-ind-claim-en huggingface dataset:
An implant adapted for delivery to a human middle meatus space comprising: (a) a tubular implant comprising a plurality of braided polymeric strands that comprise a first biodegradable polymer material; (b) a conformal coating over the tubular implant that comprises a crosslinked biodegradable elastomer; and (c) a therapeutic-agent-containing layer comprising mometasone furoate and a second biodegradable polymer material which may be the same as or different from the first biodegradable polymer material, wherein the second biodegradable polymer material comprises poly(lactide-co-caprolactone); wherein the implant is adapted to conform to the shape of a middle meatus space and demonstrates a cumulative release after four weeks in vivo of between 15% to 50% of said mometasone furoate. (a) a tubular implant comprising a plurality of braided polymeric strands that comprise a first biodegradable polymer material; (b) a conformal coating over the tubular implant that comprises a crosslinked biodegradable elastomer; and (c) a therapeutic-agent-containing layer comprising mometasone furoate and a second biodegradable polymer material which may be the same as or different from the first biodegradable polymer material, wherein the second biodegradable polymer material comprises poly(lactide-co-caprolactone);
A method for controlling a display device , comprising: displaying a plurality of display items (410-1 to 410-6) on a display screen; obtaining coordinates of a position (P1) indicated by an input device; displaying a highlight on a first display item (410-1) which is provided on the coordinates; determining a motion direction of the input device based on the obtained coordinates and coordinates of a moved position (P2) received from the input device; displaying, in addition to the highlight, a feedback UI on an outline, only on an outside of the first display item (410-1), corresponding to the motion direction; based on the moved position (P2) being positioned at a preset distance from a central point of the first display item, increasing the size of the feedback UI as the moved position (P2) approaches the outline of the first display item; and based on the moved position being positioned beyond a preset distance from the first display item, deleting the feedback UI on the display screen and displaying the highlight on a second display item (410-2) corresponding to the motion direction of the input device. displaying a plurality of display items (410-1 to 410-6) on a display screen; obtaining coordinates of a position (P1) indicated by an input device; displaying a highlight on a first display item (410-1) which is provided on the coordinates; determining a motion direction of the input device based on the obtained coordinates and coordinates of a moved position (P2) received from the input device; displaying, in addition to the highlight, a feedback UI on an outline, only on an outside of the first display item (410-1), corresponding to the motion direction; based on the moved position (P2) being positioned at a preset distance from a central point of the first display item, increasing the size of the feedback UI as the moved position (P2) approaches the outline of the first display item; and based on the moved position being positioned beyond a preset distance from the first display item, deleting the feedback UI on the display screen and displaying the highlight on a second display item (410-2) corresponding to the motion direction of the input device.
An isolated monoclonal antibody which specifically binds to the cysteine rich repeat sequences in one or more of the extracellular domains 3 or 4 of OX40, comprising: (a) heavy chain CDRs comprising SEQ ID NO: 37-39 and light chain CDRs comprising SEQ ID NO: 40-42; (b) heavy chain CDRs comprising SEQ ID NO: 43-45 and light chain CDRs comprising SEQ ID NO: 46-48; (c) heavy chain CDRs comprising SEQ ID NO: 49-51 and light chain CDRs comprising SEQ ID NO: 52-54; or (d) heavy chain CDRs comprising SEQ ID NO: 55-57 and light chain CDRs comprising SEQ ID NO: 58-60; and wherein the Fc region of the antibody is derived from either the mouse IgG1 or human IgG2 isotype. (a) heavy chain CDRs comprising SEQ ID NO: 37-39 and light chain CDRs comprising SEQ ID NO: 40-42; (b) heavy chain CDRs comprising SEQ ID NO: 43-45 and light chain CDRs comprising SEQ ID NO: 46-48; (c) heavy chain CDRs comprising SEQ ID NO: 49-51 and light chain CDRs comprising SEQ ID NO: 52-54; or (d) heavy chain CDRs comprising SEQ ID NO: 55-57 and light chain CDRs comprising SEQ ID NO: 58-60;
An access control method, wherein the method comprises: receiving (S103), by an authentication device, a packet sent by an access device, wherein the packet comprises a virtual local area network, VLAN, identifier; and wherein the method is characterized by authenticating (S104), by the authentication device, based on the VLAN identifier and a preconfigured correspondence by using an authentication method corresponding to the VLAN identifier, a terminal device that sends the packet, wherein the correspondence comprises a mapping from a plurality of VLAN identifiers to at least two authentication methods and the at least two authentication methods comprise MAC authentication and captive portal authentication. receiving (S103), by an authentication device, a packet sent by an access device, wherein the packet comprises a virtual local area network, VLAN, identifier; and wherein the method is characterized by authenticating (S104), by the authentication device, based on the VLAN identifier and a preconfigured correspondence by using an authentication method corresponding to the VLAN identifier, a terminal device that sends the packet, wherein the correspondence comprises a mapping from a plurality of VLAN identifiers to at least two authentication methods and the at least two authentication methods comprise MAC authentication and captive portal authentication.
A control method for controlling a wind turbine to output electrical power to a grid, the method comprising: determining the ambient temperature of one or more electrical components in the wind turbine, the one or more electrical components carrying a current that is generated by the generator for output to a point of connection with an electrical connection network, said electrical components being located between the generator and the point of connection ; determining a maximum safe current for the one or more electrical components based on the ambient temperature of the one or more electrical components; determining a maximum safe power level that the wind turbine generator can supply to the point of connection without exceeding the maximum safe current for the one or more electrical components; and controlling the wind turbine so that the power delivered from the generator does not exceed the maximum safe power level. determining the ambient temperature of one or more electrical components in the wind turbine, the one or more electrical components carrying a current that is generated by the generator for output to a point of connection with an electrical connection network, said electrical components being located between the generator and the point of connection ; determining a maximum safe current for the one or more electrical components based on the ambient temperature of the one or more electrical components; determining a maximum safe power level that the wind turbine generator can supply to the point of connection without exceeding the maximum safe current for the one or more electrical components; and controlling the wind turbine so that the power delivered from the generator does not exceed the maximum safe power level.
Radially/axially movable coupling with two coupling parts which are connected to one another in a torsionally rigid or torsionally elastic manner, and can be moved with respect to one another at least to a limited extent in the radial direction and the axial direction, the two coupling parts having in each case one coupling half for connecting a shaft in a torque-proof manner, each coupling half 1.1 having a flange which supports a coupling toothing system on an axial end side , 1.2 the coupling toothing system being configured as a crown toothing system with a multiplicity of teeth with a trapezoidal cross section which are positioned next to one another and are separated by in each case one tooth gap , in a section perpendicularly with respect to the extent of the tooth tip (5.2) parallel to the tooth gaps and planar tooth flanks (5.1), and 1.3 a flat tooth tip (5.2) which is positioned on the axial end side of the coupling half being arranged between in each case two tooth flanks (5.1) ; 1.4 the tooth tips (5.2) running between the tooth flanks (5.1) along in each case one tooth tip centre line (5.3), which tooth tip centre lines (5.3) are oriented in a radial direction with respect to a rotational axis of the coupling half, and 1.5 a flange connection running in the one coupling half in the axial direction of the coupling half only through precisely each toothed tip (5.2), and 1.6 a flange connection running, or a bore for a flange connection being made, in the other coupling half in the axial direction of the coupling half only through precisely each tooth gap . 1.1 having a flange which supports a coupling toothing system on an axial end side , 1.2 the coupling toothing system being configured as a crown toothing system with a multiplicity of teeth with a trapezoidal cross section which are positioned next to one another and are separated by in each case one tooth gap , in a section perpendicularly with respect to the extent of the tooth tip (5.2) parallel to the tooth gaps and planar tooth flanks (5.1), and 1.3 a flat tooth tip (5.2) which is positioned on the axial end side of the coupling half being arranged between in each case two tooth flanks (5.1) ; 1.4 the tooth tips (5.2) running between the tooth flanks (5.1) along in each case one tooth tip centre line (5.3), which tooth tip centre lines (5.3) are oriented in a radial direction with respect to a rotational axis of the coupling half, and 1.5 a flange connection running in the one coupling half in the axial direction of the coupling half only through precisely each toothed tip (5.2), and 1.6 a flange connection running, or a bore for a flange connection being made, in the other coupling half in the axial direction of the coupling half only through precisely each tooth gap .
A method used in a macro Base Station, BS, , the method comprising: obtaining (S310) a dynamic UpLink, UL/DownLink, DL, configuration of a first pico base station and a dynamic UL/DL configuration of a second pico base station ; transmitting (S320), to a User Equipment, UE, served by the first pico base station , the dynamic UL/DL configuration of the first pico base station , over a downlink physical channel, wherein the downlink physical channel is a Physical Downlink Control Channel, PDCCH, and wherein the dynamic UL/DL configuration of the first pico base station is transmitted in a first resource region of a PDCCH search space, the first resource region consisting of one or more consecutive Control Elements, CEs; transmitting (S320), to a UE served by the second pico base station , the dynamic UL/DL configuration of the second pico base station , over the PDCCH, wherein the dynamic UL/DL configuration of the second pico base station is transmitted in a second resource region of the PDCCH search space; and transmitting (S330) information associated with the first resource region to the UE served by the first pico base station and transmitting (S330) information associated with the second resource region to the UE served by the second pico base station , each of the first resource region and the second resource region consisting of one or more consecutive Control Channel Elements, CCEs, within the PDCCH search space. obtaining (S310) a dynamic UpLink, UL/DownLink, DL, configuration of a first pico base station and a dynamic UL/DL configuration of a second pico base station ; transmitting (S320), to a User Equipment, UE, served by the first pico base station , the dynamic UL/DL configuration of the first pico base station , over a downlink physical channel, wherein the downlink physical channel is a Physical Downlink Control Channel, PDCCH, and wherein the dynamic UL/DL configuration of the first pico base station is transmitted in a first resource region of a PDCCH search space, the first resource region consisting of one or more consecutive Control Elements, CEs; transmitting (S320), to a UE served by the second pico base station , the dynamic UL/DL configuration of the second pico base station , over the PDCCH, wherein the dynamic UL/DL configuration of the second pico base station is transmitted in a second resource region of the PDCCH search space; and transmitting (S330) information associated with the first resource region to the UE served by the first pico base station and transmitting (S330) information associated with the second resource region to the UE served by the second pico base station , each of the first resource region and the second resource region consisting of one or more consecutive Control Channel Elements, CCEs, within the PDCCH search space.
Method for detecting quench of a superconductor fault current limiter, wherein the voltage at the incoming end and the voltage at the outgoing end of a superconductor fault current limiter are transformed to a current proportional to the voltage at the corresponding ends of the fault current limiter , wherein each current is fed to a differential protection relay , which calculates the current difference and operates a triggering mechanism of a circuit breaker if the current difference exceeds a predetermined value.
A target approach method with a long-range optical device , - said long-range optical device comprising observation optics , a rangefinder device and an orientation determination device , - wherein a user of the long-range optical device , on a route extending from a starting position to a target position , moves to an intermediate position , - wherein an adaption step is comprised, characterized in that in the adaption step, at an intermediate position , a reference position is aimed at by means of the observation optics of the long-range optical device , wherein a reference distance and a reference angle of the reference position relative to the target at a target position are stored in a geodetic calculation module and - a difference angle between an absolute direction and a reference direction of the long-range optical device is determined by means of the orientation determination device , and - a difference distance from the intermediate position to the reference position is determined by means of the rangefinder device , and - a target distance and a target angle of the intermediate position relative to the target position are determined by a geodetic calculation module from the reference distance and the difference distance , as well as from the reference angle and the difference angle . - said long-range optical device comprising observation optics , a rangefinder device and an orientation determination device , - wherein a user of the long-range optical device , on a route extending from a starting position to a target position , moves to an intermediate position , - wherein an adaption step is comprised, characterized in that in the adaption step, at an intermediate position , a reference position is aimed at by means of the observation optics of the long-range optical device , wherein a reference distance and a reference angle of the reference position relative to the target at a target position are stored in a geodetic calculation module and - a difference angle between an absolute direction and a reference direction of the long-range optical device is determined by means of the orientation determination device , and - a difference distance from the intermediate position to the reference position is determined by means of the rangefinder device , and - a target distance and a target angle of the intermediate position relative to the target position are determined by a geodetic calculation module from the reference distance and the difference distance , as well as from the reference angle and the difference angle .
Method for diagnosing the azoto-nutritional status of agronomic, fodder, horticultural and vegetable crops by comparison of nitrogen, Na, dry matter contents of aerial parts, MSPA, of specific dry weight individual plants, PS, at critical nitrogen levels, Nc, for the same MSPA characterized in that ; ➢ the MSPA are those of individual PS plants having as a unit, for example, g/plant, and not 10 of biomass per unit area, or even per hectare, the Nc value being here a function of this PS of the individual plants, and which includes the following steps; i) sampling of a series of individual seedlings for the purpose of determining their HCPs, ii) determination of the nitrogen content of the MSPA of that individual plant of given PS, iii) comparison of that nitrogen content to a critical, NC, content, expressed on the same basis of PS from a critical nitrogen dilution curve expressed as a function of PS of individual plants, that PS NC function being made up of variable points from growth kinetics producing a range of surface MSPA and nitrogen contents, advantageously per hectare thus having, for example, the unit t-MSPA/ha, these MSPA having during their growth and development an azoto-nutritional index, NNI, NNI = Na / Nc ≈ 1.00 +/- 0.10, iv) determination of an index of the azoto-nutritional status as Na/Nc characteristic of the individual plant and therefore, from the culture from which it comes. i) sampling of a series of individual seedlings for the purpose of determining their HCPs, ii) determination of the nitrogen content of the MSPA of that individual plant of given PS, iii) comparison of that nitrogen content to a critical, NC, content, expressed on the same basis of PS from a critical nitrogen dilution curve expressed as a function of PS of individual plants, that PS NC function being made up of variable points from growth kinetics producing a range of surface MSPA and nitrogen contents, advantageously per hectare thus having, for example, the unit t-MSPA/ha, these MSPA having during their growth and development an azoto-nutritional index, NNI, NNI = Na / Nc ≈ 1.00 +/- 0.10, iv) determination of an index of the azoto-nutritional status as Na/Nc characteristic of the individual plant and therefore, from the culture from which it comes.
A method for printing an inkjet energy curable ink composition comprising: a) providing an inkjet energy curable ink composition, wherein the inkjet ink composition comprises: i) greater than or equal to 20% (w/w) one or more monofunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; ii) less than or equal to 40% (w/w) one or more multifunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; iii) optionally, one or more solvents; and iv) optionally, one or more colorants; b) applying the inkjet ink composition of step a) to a substrate; and c) curing the applied inkjet ink composition by exposure to electron beam radiation, wherein: i) the accelerating voltage of the electron beam emitter is equal to or greater than 70 keV; ii) the cure dose is equal to or greater than 30 kGy. a) providing an inkjet energy curable ink composition, wherein the inkjet ink composition comprises: i) greater than or equal to 20% (w/w) one or more monofunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; ii) less than or equal to 40% (w/w) one or more multifunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; iii) optionally, one or more solvents; and iv) optionally, one or more colorants; i) greater than or equal to 20% (w/w) one or more monofunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; ii) less than or equal to 40% (w/w) one or more multifunctional ethylenically unsaturated monomers or oligomers, based on the total weight of the inkjet ink composition; iii) optionally, one or more solvents; and iv) optionally, one or more colorants; b) applying the inkjet ink composition of step a) to a substrate; and c) curing the applied inkjet ink composition by exposure to electron beam radiation, wherein: i) the accelerating voltage of the electron beam emitter is equal to or greater than 70 keV; ii) the cure dose is equal to or greater than 30 kGy. i) the accelerating voltage of the electron beam emitter is equal to or greater than 70 keV; ii) the cure dose is equal to or greater than 30 kGy.
A method of forming of seamless rings by process of hot rolling in a rolling mill with vertical placement of rolls, where the rolling of the ring consists of increasing, through a forming process, the diameter of a ring-shaped input material while simultaneously shaping the external profile of the input material - the ring, which is driven by a rotating main roll , is guided by a mandrel roll rotating around its own axis, by forced movement with linear feed at a set speed, moving towards the main roll , whereas conical rolls move in a horizontal movement in accordance with the increase of the ring , and additionally the vertical movement of the upper conical roll enables maintaining a constant height of the ring or reducing the height to a set value, wherein the main roll, used as a forming tool, with a segment construction consisting of a base roll segment and an exchangeable roll segment centred in its lower part on the surface of the base roll segment , is used to shape, by rolling on the mill, an external shape of the ring , while the mandrel roll creates an internal outline of the ring , where by decreasing the wall thickness and the ring height, the ring diameter increases while maintaining a constant volume, whereby the rolling process ends when the ring reaches a desired shape and diameter, characterized in that the torque from the base roll segment is transferred to the exchangeable roll segment using a shaped connection of the both segments in the form of a regular polygon , placed coaxially in the centre of the base roll segment , and in that the base roll segment and the exchangeable roll segment connected by the polygon are locked with bolts using a full ring axially placed on the base roll segment and on the front upper part of the exchangeable roll segment and a split ring placed in a base roll segment , whereas the base roll and exchangeable roll segments are disconnected by using a clamping ring of the split ring , where the clamping ring is placed over the split ring , and using bolts and nuts the exchangeable roll segment is removed and replaced.