mhurhangee/ep-ind-claims huggingface dataset:
A dental restorative composition comprising a polymerizable resin, a substantially translucent structural filler, a nanofiller having a mean particle size less than 100 nm, and at least one rheology-modifying additive, wherein the structural filler has a refractive index substantially similar to that of the polymerizable resin and characterized in that the structural filler comprises a coarse particle fraction having a first mean particle size greater than 3 μm with D of ≥1 μm and a fine particle fraction having a second mean particle size greater than 0.1 μm and less than 1 μm with D of ≤0.9 μm, particle size being measured by dynamic light scattering and that a relative ratio of the coarse particle fraction to the fine particle fraction is in the range from 12:1 to 2:1 by volume, and the particle size distributions of each of the coarse and fine particle fractions are essentially monomodal; the composition being such that its viscosity is paste-like in an undisturbed state, and undergoes shear-thinning to reduce the viscosity to liquid-like when subjected to sonic and/or ultrasonic vibration, wherein the at least one rheology-modifying additive comprises an inorganic rheology modifier that is fumed silica and/or an organic rheology modifier that is an alkylamide of the general formula RCONHR', where R is an alkyl or alkylidine group and R' is an alkyl group, and wherein the nanofiller excludes fumed silica.
A method performed by a network node (15,12) for handling positioning of a wireless device in a wireless communications network, the method comprising - transmitting, to the wireless device, assistance data comprising two or more positioning reference signal, PRS, configurations associated with a radio network node or with a service area of the radio network node; - receiving, from the wireless device, an indication indicating a scope of usage of the two or more PRS configurations, wherein the indication indicates that less than all PRS configurations have been used and/or how the PRS configurations are used at the wireless device; and the method being characterized by: - using the indication in a positioning related process, wherein the positioning related process comprises: - compiling, based on the indication, statistics per region, and - using the statistics from one region to decide whether to configure multiple PRS configurations in another region, or to decide to disable multiple PRS configurations if the benefits are considered less compared to the costs of transmitting multiple PRS configurations. - transmitting, to the wireless device, assistance data comprising two or more positioning reference signal, PRS, configurations associated with a radio network node or with a service area of the radio network node; - receiving, from the wireless device, an indication indicating a scope of usage of the two or more PRS configurations, wherein the indication indicates that less than all PRS configurations have been used and/or how the PRS configurations are used at the wireless device; and the method being characterized by: - using the indication in a positioning related process, wherein the positioning related process comprises: - compiling, based on the indication, statistics per region, and - using the statistics from one region to decide whether to configure multiple PRS configurations in another region, or to decide to disable multiple PRS configurations if the benefits are considered less compared to the costs of transmitting multiple PRS configurations. - using the indication in a positioning related process, wherein the positioning related process comprises: - compiling, based on the indication, statistics per region, and - using the statistics from one region to decide whether to configure multiple PRS configurations in another region, or to decide to disable multiple PRS configurations if the benefits are considered less compared to the costs of transmitting multiple PRS configurations. - compiling, based on the indication, statistics per region, and - using the statistics from one region to decide whether to configure multiple PRS configurations in another region, or to decide to disable multiple PRS configurations if the benefits are considered less compared to the costs of transmitting multiple PRS configurations.
A dermatologic treatment apparatus that is cordless and sufficiently compact as to be hand-held, comprising: (a) a self-contained housing (20; 410; 610) configured for gripping by a person's hand for cordless manipulation in a dermatologic treatment procedure; (b) a light source (10; 140; 145; 240; 310) comprising one or more diodes within the housing (20; 410; 610); (c) an electrical circuit within the housing (20; 410; 610) comprising one or more batteries and an electronic control circuit for directly energizing the light source to produce output light pulses; (d) a light path within the housing (20; 410; 610) including an aperture (14; 100; 105; 200; 420) through which the output light pulses are propagated out of the housing (20; 410; 610) having properties that provide efficacious treatment; and (e) wherein the cordless apparatus has a total weight of no more than one kilogram, and (f) wherein the cordless apparatus occupies no more than 1500 cm 3 of volume; characterized in that (g) the one or more diodes are diode laser bars (720; 800) each having a plurality of emitters; (h) the electrical circuit within the housing is a direct drive electrical circuit; (i) the one or more batteries supply a battery voltage Vbat and the electronic control circuit comprises one or more field effect transistors (FETs) (802, 803) and a voltage supply, wherein the voltage supply drives the gates of the FETs (802, 803) at a voltage greater than the battery voltage Vbat. (a) a self-contained housing (20; 410; 610) configured for gripping by a person's hand for cordless manipulation in a dermatologic treatment procedure; (b) a light source (10; 140; 145; 240; 310) comprising one or more diodes within the housing (20; 410; 610); (c) an electrical circuit within the housing (20; 410; 610) comprising one or more batteries and an electronic control circuit for directly energizing the light source to produce output light pulses; (d) a light path within the housing (20; 410; 610) including an aperture (14; 100; 105; 200; 420) through which the output light pulses are propagated out of the housing (20; 410; 610) having properties that provide efficacious treatment; and (e) wherein the cordless apparatus has a total weight of no more than one kilogram, and (f) wherein the cordless apparatus occupies no more than 1500 cm 3 of volume; characterized in that (g) the one or more diodes are diode laser bars (720; 800) each having a plurality of emitters; (h) the electrical circuit within the housing is a direct drive electrical circuit; (i) the one or more batteries supply a battery voltage Vbat and the electronic control circuit comprises one or more field effect transistors (FETs) (802, 803) and a voltage supply, wherein the voltage supply drives the gates of the FETs (802, 803) at a voltage greater than the battery voltage Vbat.
A method of fabricating a core rod for an optical fiber preform, characterized by: selecting a number of core body pieces each having a cladding layer surrounding an inner core, wherein a cladding to core diameter ratio (D/d) of said body pieces is in a range of one to four, inserting the core body pieces end-to-end inside a glass cylinder having determined inside and outside diameters; mounting the glass cylinder with the inserted core body pieces vertically with respect to a furnace; and heating the glass cylinder in the furnace thereby elongating the cylinder with the inserted core body pieces, and collapsing the outside diameter of the cylinder to a determined size to form a finished core rod having a D/d ratio that is greater than that of the core body pieces. selecting a number of core body pieces each having a cladding layer surrounding an inner core, wherein a cladding to core diameter ratio (D/d) of said body pieces is in a range of one to four, inserting the core body pieces end-to-end inside a glass cylinder having determined inside and outside diameters; mounting the glass cylinder with the inserted core body pieces vertically with respect to a furnace; and heating the glass cylinder in the furnace thereby elongating the cylinder with the inserted core body pieces, and collapsing the outside diameter of the cylinder to a determined size to form a finished core rod having a D/d ratio that is greater than that of the core body pieces.
A cosmetic dispenser comprising: a communication unit (150, 160); a control unit for acquiring at least one of user information and environment information through the communication unit and acquiring a cosmetic dispensing method based on at least one of the user information and the environment information; and a cosmetic dispensing unit having a plurality of cartridges for containing cosmetics and a discharge unit for discharging the cosmetics contained in the plurality of cartridges, characterized in that the control unit receives input information in which an amount of cosmetics to be provided is selected by either a number of times of use or a period of use, and the cosmetic dispensing unit dispenses each of the cosmetics contained in the plurality of cartridges in an amount corresponding to the number of times of use or the period of use selected according to the input information, wherein when dispensing cosmetics corresponding to the period of use, the cosmetic dispensing unit supplies an amount of cosmetics to be used by a user during the period of use. a communication unit (150, 160); a control unit for acquiring at least one of user information and environment information through the communication unit and acquiring a cosmetic dispensing method based on at least one of the user information and the environment information; and a cosmetic dispensing unit having a plurality of cartridges for containing cosmetics and a discharge unit for discharging the cosmetics contained in the plurality of cartridges, characterized in that the control unit receives input information in which an amount of cosmetics to be provided is selected by either a number of times of use or a period of use, and the cosmetic dispensing unit dispenses each of the cosmetics contained in the plurality of cartridges in an amount corresponding to the number of times of use or the period of use selected according to the input information, wherein when dispensing cosmetics corresponding to the period of use, the cosmetic dispensing unit supplies an amount of cosmetics to be used by a user during the period of use.
A method of operating a laundry machine having a drum with an axis of rotation through a center of the drum, the method comprising rotating the drum in a first motion, comprising: - rotating the drum at a first predetermined rotational speed such that a first centrifugal force generated by the rotation of the drum at the first predetermined rotational speed causes a laundry item positioned in the drum to cling to an inner surface of the drum as the drum rotates at the first predetermined rotational speed; - rotating the drum at a second predetermined rotational speed such that a second centrifugal force generated by the rotation of the drum at the second predetermined rotational speed is insufficient for the laundry item to cling to the inner surface of the drum as the drum rotates at the second predetermined rotational speed, wherein the second predetermined rotational speed is less than 60 RPM; and - rotating the drum at a third predetermined rotational speed such that a third centrifugal force generated by the rotation of the drum at the third predetermined rotational speed causes the laundry item to be drawn back to the inner surface of the drum as the drum rotates at the third predetermined rotational speed, the method further comprising rotating the drum in a second motion, comprising: - rotating the drum at a fourth predetermined rotational speed that is less than the first and second predetermined rotational speed. - rotating the drum at a first predetermined rotational speed such that a first centrifugal force generated by the rotation of the drum at the first predetermined rotational speed causes a laundry item positioned in the drum to cling to an inner surface of the drum as the drum rotates at the first predetermined rotational speed; - rotating the drum at a second predetermined rotational speed such that a second centrifugal force generated by the rotation of the drum at the second predetermined rotational speed is insufficient for the laundry item to cling to the inner surface of the drum as the drum rotates at the second predetermined rotational speed, wherein the second predetermined rotational speed is less than 60 RPM; and - rotating the drum at a third predetermined rotational speed such that a third centrifugal force generated by the rotation of the drum at the third predetermined rotational speed causes the laundry item to be drawn back to the inner surface of the drum as the drum rotates at the third predetermined rotational speed, - rotating the drum at a fourth predetermined rotational speed that is less than the first and second predetermined rotational speed.
Reflective target for surveying instruments, including a plurality of planar reflective sections (110; 210, 211; 310, 320, 330, 340; 510, 520, 530, 540; 610, 620, 630, 640; 910) arranged to form a shape having a target axis (120; 350; 550; 851; 920), wherein each reflective section includes a plurality of prisms (111; 311, 341; 711) having the same orientation, each prism constituted by a corner cube having three surfaces oriented perpendicular to one another and forming a base for receiving incident light, characterized in that each of the prisms is oriented such that a common edge (112; 312, 342) formed by two of the three surfaces of the prism is oriented such that the common edge and the target axis or a line parallel to the target axis lie in a common plane and so that the common edge is oriented towards a bottom portion or a top portion of the reflective target.
A camera module, comprising: a housing; a lens unit arranged in the housing and comprising a first lens and a second lens; a driving unit arranged adjacent to a first surface inside the housing, and configured to move the first lens in a direction along an optical axis; and a further driving unit arranged adjacent to a second surface inside the housing oppositely facing the first surface, and configured to move the second lens in a direction along the optical axis, wherein the driving unit forms a first magnetic field oriented in a first direction, and wherein the further driving unit forms a second magnetic field oriented in a second direction intersecting the first direction at a first prespecified angle. a housing; a lens unit arranged in the housing and comprising a first lens and a second lens; a driving unit arranged adjacent to a first surface inside the housing, and configured to move the first lens in a direction along an optical axis; and a further driving unit arranged adjacent to a second surface inside the housing oppositely facing the first surface, and configured to move the second lens in a direction along the optical axis, wherein the driving unit forms a first magnetic field oriented in a first direction, and wherein the further driving unit forms a second magnetic field oriented in a second direction intersecting the first direction at a first prespecified angle.
Method for producing crystalline active substance microparticles, comprising the steps in which to a suspension of primary particles of active substance and inert formed pieces, with a maximum size of 0.1 - 2 mm, in a mixture of solvent and non-sovent for the active substance (a) a solution of the active substance in the solvent and (b) non-sovent are added, wherein solvent and non-solvent are miscible in the quantitative ratio used, the suspension is mixed, whereupon the active substance crystallizes out of the suspension, the active substance is separated in the form of product particles and the product particles are then dried, wherein the primary particles and the product particles are crystalline, are in the most stable crystal modification of the active substance, have a crystal surface area of 3-10 m 2 /g and the size distribution of the primary and product particles, determined by laser diffraction, is each d 50 = 1-2 μm, d 99 < 6 μm and d 100 < 12 μm, wherein the d values refer to volume percent of the particles.
A method, comprising: providing content over a network (104, 105) to a first device (101-A) that is configured to display the content; receiving a first request from a user device, characterized by determining, by a computer, a first contact destination based on a time stamp of a portion of the content being displayed by the first device (101-A) when the first request is made. providing content over a network (104, 105) to a first device (101-A) that is configured to display the content; receiving a first request from a user device, characterized by determining, by a computer, a first contact destination based on a time stamp of a portion of the content being displayed by the first device (101-A) when the first request is made.
A nano-fiber manufacturing apparatus, which includes: a nozzle block having a plurality of upward nozzles for upwardly discharging a polymer solution from outlets of the upward nozzles and a polymer solution supply channel for supplying the polymer solution to the upward nozzles; a collector arranged above the nozzle block; and a power supply for applying high voltage between the upward nozzles and the collector, and which is capable of field-emitting nano-fibers by discharging the polymer solution from the outlets of the plural upward nozzles while overflowing the polymer solution from the outlets of the plural upward nozzles, and at the same time, collecting the polymer solution overflowed from the outlets of the upward nozzles so as to the collected polymer solution as a raw material of nano-fibers, the nano-fiber manufacturing apparatus comprising: a polymer solution collecting channel formed in the nozzle block for collecting the polymer solution overflowed from the outlets of the upward nozzles; a raw material tank for storing the polymer solution which becomes the raw material of the nano-fibers; regeneration tanks adapted for regenerating the collected polymer solution and for storing the regenerated polymer solution; a middle tank for storing the polymer solution supplied from the raw material tank or the regeneration tank; a first transfer device for transferring the polymer solution from the polymer solution collecting channel of the nozzle block to the regeneration tank; a first transfer controller for controlling a transfer operation of the first transfer device; a second transfer device for transferring the polymer solution from the raw material tank and the regeneration tank to the middle tank; and a second transfer controller for controlling a transfer operation of the second transfer device. a polymer solution collecting channel formed in the nozzle block for collecting the polymer solution overflowed from the outlets of the upward nozzles; a raw material tank for storing the polymer solution which becomes the raw material of the nano-fibers; regeneration tanks adapted for regenerating the collected polymer solution and for storing the regenerated polymer solution; a middle tank for storing the polymer solution supplied from the raw material tank or the regeneration tank; a first transfer device for transferring the polymer solution from the polymer solution collecting channel of the nozzle block to the regeneration tank; a first transfer controller for controlling a transfer operation of the first transfer device; a second transfer device for transferring the polymer solution from the raw material tank and the regeneration tank to the middle tank; and a second transfer controller for controlling a transfer operation of the second transfer device.
A method performed by a network node (1001, 1101, 1103i, 1300) in a communication network, the communication network providing a first type of positioning information wherein the first type of positioning information enables positioning with a first positioning accuracy, the method comprising: - obtaining (501, 601, 801, 901) a request for a second type of positioning information from a wireless device, wherein the second type of positioning information enables positioning with a second positioning accuracy that is higher than the first positioning accuracy; - providing (502, 602, 903) information to the wireless device in response to the request, wherein the information is valid for a predefined period of time and wherein the information enables the wireless device to obtain the second type of positioning information only during the predefined period of time; and - providing (503, 603, 703, 805, 903) the second type of positioning information, characterized in that the information provided in response to the request comprises one or more of: - an indication of in which communication resources the second type of positioning information may be obtained during the predefined period of time, wherein the communication resources comprise radio resources that are changed at regular or irregular intervals; - information enabling decoding of the second type of positioning information during the predefined period of time; wherein a code used by the communication network for encoding the second type of positioning information is changed by the communication network at regular or irregular intervals. - obtaining (501, 601, 801, 901) a request for a second type of positioning information from a wireless device, wherein the second type of positioning information enables positioning with a second positioning accuracy that is higher than the first positioning accuracy; - providing (502, 602, 903) information to the wireless device in response to the request, wherein the information is valid for a predefined period of time and wherein the information enables the wireless device to obtain the second type of positioning information only during the predefined period of time; and - providing (503, 603, 703, 805, 903) the second type of positioning information, - an indication of in which communication resources the second type of positioning information may be obtained during the predefined period of time, wherein the communication resources comprise radio resources that are changed at regular or irregular intervals; - information enabling decoding of the second type of positioning information during the predefined period of time; wherein a code used by the communication network for encoding the second type of positioning information is changed by the communication network at regular or irregular intervals.