mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising synthetic nanocarriers comprising poly(D,L-lactide) and poly(D,L-lactide)-poly(ethylene glycol) (PLA-PEG) and comprising rapamycin or a rapalog for use in a therapeutic method of reducing inflammation comprising: concomitantly administering to a subject in need thereof 1) said composition and 2) a composition comprising pegsiticase; and further comprising administering 3) a composition comprising an anti-inflammatory therapeutic, wherein the composition comprising an anti-inflammatory therapeutic is administered at least once at least one week prior to the composition comprising synthetic nanocarriers comprising rapamycin or a rapalog and the composition comprising pegsiticase.
Method for stabilizing an electricity distribution network after the clarification of a network fault, wherein an electricity generating installation, in particular a wind energy installation, is connected to the electricity distribution network and feeds electrical energy into the electricity distribution network via a converter, comprising the following steps: a. discovering the network fault of the electricity distribution network; b. activating a stabilization controller in the electricity generating installation after the discovering in accordance with step a., wherein a step response of the stabilization controller rises over time and wherein the stabilization controller controls the voltage of the electrical energy fed in depending on a fed-back voltage signal; c. checking whether the voltage has stabilized after a predefined time period has elapsed since activating the stabilization controller in accordance with step b.; and d. increasing the reactive current infeed beyond a limit provided for normal operation if the check in accordance with step c. reveals that the voltage has not yet stabilized. a. discovering the network fault of the electricity distribution network; b. activating a stabilization controller in the electricity generating installation after the discovering in accordance with step a., wherein a step response of the stabilization controller rises over time and wherein the stabilization controller controls the voltage of the electrical energy fed in depending on a fed-back voltage signal; c. checking whether the voltage has stabilized after a predefined time period has elapsed since activating the stabilization controller in accordance with step b.; and d. increasing the reactive current infeed beyond a limit provided for normal operation if the check in accordance with step c. reveals that the voltage has not yet stabilized.
A shear bolt, which is divided into at least three sections (201; 206; 207), which comprise a bolt tip and two tiers (201, 206), wherein the tiers (201, 206) each have an inner profile (209, 2011) with the same contour and the same dimensions, in which a tool (400, 401) can be positively engaged, wherein the inner profile of the second tier is rotated relative to the inner profile of the first tier by a predetermined angle of rotation, characterized in that the inner profile of the second tier extends only in the region of the second tier, so that a tool inserted into the first tier and matching the inner profile of the first tier is not insertable into the inner profile of the second tier.
A non-oriented electrical steel sheet, comprising a chemical composition represented by: in mass%, C: 0.0010% to 0.0050%; Si: 2.5% to 4.0%; Al: 0.0001% to 2.0%; Mn: 0.1% to 3.0%; P: 0.005% to 0.15%; S: 0.0001% to 0.0030%; Ti: 0.0005% to 0.0030%; N: 0.0010% to 0.0030%; Sn: 0.00% to 0.2%; Sb: 0.00% to 0.2%; Ni: 0.00% to 0.2%; Cu: 0.00% to 0.2%; Cr: 0.00% to 0.2%; Ca: 0.0000% to 0.0025%; REM: 0.0000% to 0.0050%; and the balance: Fe and impurities, wherein when an average value of Mn concentrations in a range from a surface of a base iron to a position where a depth from the surface of the base iron is 2 μ m is set to [Mn 2], and an Mn concentration at a position where a depth from the surface of the base iron is 10 μ m is set to [Mn 10], the base iron satisfies the following expression 1, wherein the Mn concentrations along the depth direction are measured using a glow discharge spectroscopy. 0.1 ≦ Mn 2 / Mn 10 ≦ 0.9 in mass%, C: 0.0010% to 0.0050%; Si: 2.5% to 4.0%; Al: 0.0001% to 2.0%; Mn: 0.1% to 3.0%; P: 0.005% to 0.15%; S: 0.0001% to 0.0030%; Ti: 0.0005% to 0.0030%; N: 0.0010% to 0.0030%; Sn: 0.00% to 0.2%; Sb: 0.00% to 0.2%; Ni: 0.00% to 0.2%; Cu: 0.00% to 0.2%; Cr: 0.00% to 0.2%; Ca: 0.0000% to 0.0025%; REM: 0.0000% to 0.0050%; and the balance: Fe and impurities, wherein when an average value of Mn concentrations in a range from a surface of a base iron to a position where a depth from the surface of the base iron is 2 μ m is set to [Mn 2], and an Mn concentration at a position where a depth from the surface of the base iron is 10 μ m is set to [Mn 10], the base iron satisfies the following expression 1, wherein the Mn concentrations along the depth direction are measured using a glow discharge spectroscopy. 0.1 ≦ Mn 2 / Mn 10 ≦ 0.9
Apparatus for measuring state variables with at least one fiber-optic sensor, the apparatus at least containing: at least one optical coupler (125a, 125b, 125c, 125d, 125e, 125f, 125g, 128, 126) each having three terminals, at least one filter element containing at least one Bragg grating, and at least one photoelectric converter, wherein at least one optical coupler (125, 126, 128), a filter element and a photoelectric converter are integrated on a substrate, which has two opposing surfaces, characterized in that the first terminal of the optical coupler is configured to receive light from a fiber optic sensor and direct it to the second terminal which is connected to the Bragg grating, wherein the light reflected by the Bragg grating can be supplied to the photoelectric converter via the second terminal and the third terminal of the optical coupler, and the first and second terminals of the optical coupler lie in a plane which is parallel to each of the two opposing surfaces of the substrate and wherein the third terminal of the optical coupler extends perpendicularly to this plane. at least one optical coupler (125a, 125b, 125c, 125d, 125e, 125f, 125g, 128, 126) each having three terminals, at least one filter element containing at least one Bragg grating, and at least one photoelectric converter, wherein at least one optical coupler (125, 126, 128), a filter element and a photoelectric converter are integrated on a substrate, which has two opposing surfaces, characterized in that the first terminal of the optical coupler is configured to receive light from a fiber optic sensor and direct it to the second terminal which is connected to the Bragg grating, wherein the light reflected by the Bragg grating can be supplied to the photoelectric converter via the second terminal and the third terminal of the optical coupler, and the first and second terminals of the optical coupler lie in a plane which is parallel to each of the two opposing surfaces of the substrate and wherein the third terminal of the optical coupler extends perpendicularly to this plane.
A handling machine, comprising: - a chassis, - a system for handling a load and/or a person, carried by the chassis, - members for driving the machine on the ground, - a control console configured for controlling at least the members for driving on the ground and the handling system of the machine, and - a control unit configured for acquiring data from the control console and for controlling at least the system for handling a load and/or a person and/or its members for driving the machine on the ground, according to said data at least, characterized in that the control console has at least three selectively activatable use configurations, in that the first and second use configurations are use configurations in which the control console is carried directly or indirectly by the chassis of the machine, in that the third use configuration is a configuration in which the control console is able to operate away from the chassis and from the handling system of the machine, in that the control unit comprises a system for determining the use configuration of the control console, and in that the control unit is configured for controlling the machine according to the determined use configuration. - a chassis, - a system for handling a load and/or a person, carried by the chassis, - members for driving the machine on the ground, - a control console configured for controlling at least the members for driving on the ground and the handling system of the machine, and - a control unit configured for acquiring data from the control console and for controlling at least the system for handling a load and/or a person and/or its members for driving the machine on the ground, according to said data at least,
A LED-based system for purifying a fluid flowing through a pipe, said system comprising: - means for mounting the system on the pipe, - a housing, - a pliant carrier structure comprising a plurality of LEDs arranged flush with a first surface of the structure and configured to emit radiation in UV range, wherein, when the system is pipe-mounted, said structure is detachably arranged within the housing, and said structure adopts a substantially tubular shape within the housing with said first surface delimiting a purifying chamber, wherein said purifying chamber is in fluid communication with the pipe so that the fluid flowing through the pipe passes, prior to being dispensed, through the purifying chamber where it is exposed to UV radiation of the energized LEDs, said system being characterized in that a diffraction grating is provided on at least one of the LEDs. - means for mounting the system on the pipe, - a housing, - a pliant carrier structure comprising a plurality of LEDs arranged flush with a first surface of the structure and configured to emit radiation in UV range,
Process for manufacturing a fraction comprising carboxylic acid anhydride by reaction of a fraction comprising carboxylic acid with a ketene, wherein at least one of the following conditions is met: I. at least part of the fraction comprising carboxylic acid is a fraction comprising carboxylic acid and terpene and/or terpene derived impurities and/or II. at least part of the ketene is manufactured from a fraction comprising carboxylic acid, wherein the fraction comprising carboxylic acid further comprises terpene and/or terpene derived impurities, wherein the fraction comprising carboxylic acid and terpene and terpene derived impurities is provided to the process for manufacturing carboxylic anhydride with one or more purification steps selected from the group of steps consisting of evaporation, stripping, filtration, steam treatment, addition of additives and condensation, and wherein the fraction comprising carboxylic acid in condition I. comprises from 5 to 3000 ppm by weight of terpene and/or terpene derived impurities, and/or wherein the fraction comprising carboxylic acid in condition II. comprises equal to or less than 3000 ppm by weight of terpene and/or terpene derived impurities. I. at least part of the fraction comprising carboxylic acid is a fraction comprising carboxylic acid and terpene and/or terpene derived impurities and/or II. at least part of the ketene is manufactured from a fraction comprising carboxylic acid, wherein the fraction comprising carboxylic acid further comprises terpene and/or terpene derived impurities,
A cleaning robot, comprising: a main body to form an outer appearance and having an inlet port provided to suck foreign matter present in a cleaning area; an operation unit detachably coupled to the main body and provided to be gripped; at least one motion sensor provided to detect a motion of the operation unit; and a control unit electrically connected to the at least one motion sensor to drive a driving motor of the main body based on the motion of the operation unit detected by the at least one motion sensor. a main body to form an outer appearance and having an inlet port provided to suck foreign matter present in a cleaning area; an operation unit detachably coupled to the main body and provided to be gripped; at least one motion sensor provided to detect a motion of the operation unit; and a control unit electrically connected to the at least one motion sensor to drive a driving motor of the main body based on the motion of the operation unit detected by the at least one motion sensor.
A method of preparing eyeglass lenses for mounting in the frame selected by the wearer, taking account of stored mounting parameters associated with the morphology of the wearer and with the shape of the frame, the method comprising the following steps: · a "centering" first step during which the optical frame of reference of the lens is acquired and a blocking accessory is appropriately positioned in the optical frame of reference of the lens; and · a second step of shaping the lens to have a desired outline in a frame of reference associated with the blocking accessory and thus the optical frame of reference of the lens, with account being taken of the mounting parameters, characterized in that the blocking accessory is fitted with an electronic identification element bearing an identification code, and said identification code of the electronic element is read initially during a first read during the centering step to associate the code in memory with the mounting parameters of the lens that is receiving the blocking accessory, and then during a second read during the shaping step in order to recover the mounting parameters associated with the identification code as read and thus with the lens attached to the blocking accessory. · a "centering" first step during which the optical frame of reference of the lens is acquired and a blocking accessory is appropriately positioned in the optical frame of reference of the lens; and · a second step of shaping the lens to have a desired outline in a frame of reference associated with the blocking accessory and thus the optical frame of reference of the lens, with account being taken of the mounting parameters,
A method of determining location data from a database, the method comprising: receiving a first user input defining a longitudinal extension of a search corridor relative to a map visualized on a display unit, wherein the search corridor extends from a first map area to a second map area spaced apart from the first map area, wherein the search corridor has a corridor width in a dimension substantially perpendicular to the longitudinal extension of the search corridor, and wherein the longitudinal extension of the search corridor is determined from a trace defined by the first user input in form of a movement from the first map area to the second map area on the display unit relative to the visualized map; and determining, in response to a second user input defining one or more characters, location data of at least one location associated with the one or more characters and lying within the search corridor. receiving a first user input defining a longitudinal extension of a search corridor relative to a map visualized on a display unit, wherein the search corridor extends from a first map area to a second map area spaced apart from the first map area, wherein the search corridor has a corridor width in a dimension substantially perpendicular to the longitudinal extension of the search corridor, and wherein the longitudinal extension of the search corridor is determined from a trace defined by the first user input in form of a movement from the first map area to the second map area on the display unit relative to the visualized map; and determining, in response to a second user input defining one or more characters, location data of at least one location associated with the one or more characters and lying within the search corridor.
Method for controlling a motor of a fan of a heat exchanger, comprising: detecting a starting behaviour of the motor; detecting an obstacle to starting of the motor; adjusting the starting behaviour of the motor according to a predetermined correction scheme comprising section wise adjusting a torque and a direction of rotation of the motor characterised in that in each section the direction of rotation is reversed and the torque is successively increased. detecting a starting behaviour of the motor; detecting an obstacle to starting of the motor; adjusting the starting behaviour of the motor according to a predetermined correction scheme comprising section wise adjusting a torque and a direction of rotation of the motor characterised in that in each section the direction of rotation is reversed and the torque is successively increased.
A materials handling vehicle comprising: a power unit; a load handling assembly coupled to said power unit; at least one obstacle detector (76, 76A, 76B) mounted to said power unit to detect an object located along a path of travel of said power unit, said detector (76, 76A, 76B) generating a distance signal upon detecting an object corresponding to a distance between the detected object and said power unit; and characterised in that the materials handling vehicle further comprises: a load sensor to generate a weight signal indicative of a weight of a load on said load handling assembly; and a controller receiving said distance signal and said weight signal and generating a corresponding vehicle stop or maximum allowable speed signal based on said distance and weight signals. a power unit; a load handling assembly coupled to said power unit; at least one obstacle detector (76, 76A, 76B) mounted to said power unit to detect an object located along a path of travel of said power unit, said detector (76, 76A, 76B) generating a distance signal upon detecting an object corresponding to a distance between the detected object and said power unit; and characterised in that the materials handling vehicle further comprises: a load sensor to generate a weight signal indicative of a weight of a load on said load handling assembly; and a controller receiving said distance signal and said weight signal and generating a corresponding vehicle stop or maximum allowable speed signal based on said distance and weight signals. a load sensor to generate a weight signal indicative of a weight of a load on said load handling assembly; and a controller receiving said distance signal and said weight signal and generating a corresponding vehicle stop or maximum allowable speed signal based on said distance and weight signals.
A shielded power coupling device transferring electric power between a stationary member and a rotating member, the shielded power coupling device comprising: a) a reluctance-decreasing primary core (115; 230; 330) defining a first primary core recess; b) a reluctance-decreasing secondary core (165; 280; 380) disposed adjacent the primary core (115; 230; 330) and defining a first secondary core recess, the primary core (115; 230; 330) and the secondary core (165; 280; 380) being arranged so as to form core airgaps (102; 302) therebetween permitting relative rotation of the primary core (115; 230; 330) and the secondary core (165; 280; 380) about an axis of rotation; c) a first electrically conductive primary winding disposed substantially within the first primary core recess; d) a first electrically conductive secondary winding disposed substantially within the first secondary core recess; and e) a shield comprising first and second shields (120 170) separated by shield airgaps permitting relative rotation of the shields during operation of the shielded power coupling device, and wherein the first and second shields (120, 170) comprise an electrically conductive material and form a continuous electrical path around the axis of rotation; f) wherein a first primary electric current flowing through the first primary winding produces a first secondary electric current flowing through the first secondary winding, creating a fringing field at the periphery of the core airgaps (102; 302); and g) the shield substantially cancels the fringing field. characterized in that the shield airgaps are greater than the core airgaps (102; 302). a) a reluctance-decreasing primary core (115; 230; 330) defining a first primary core recess; b) a reluctance-decreasing secondary core (165; 280; 380) disposed adjacent the primary core (115; 230; 330) and defining a first secondary core recess, the primary core (115; 230; 330) and the secondary core (165; 280; 380) being arranged so as to form core airgaps (102; 302) therebetween permitting relative rotation of the primary core (115; 230; 330) and the secondary core (165; 280; 380) about an axis of rotation; c) a first electrically conductive primary winding disposed substantially within the first primary core recess; d) a first electrically conductive secondary winding disposed substantially within the first secondary core recess; and e) a shield comprising first and second shields (120 170) separated by shield airgaps permitting relative rotation of the shields during operation of the shielded power coupling device, and wherein the first and second shields (120, 170) comprise an electrically conductive material and form a continuous electrical path around the axis of rotation; f) wherein a first primary electric current flowing through the first primary winding produces a first secondary electric current flowing through the first secondary winding, creating a fringing field at the periphery of the core airgaps (102; 302); and g) the shield substantially cancels the fringing field.
A photoelectric conversion element comprising: a first substrate; a first transparent electrode disposed on the first substrate; a hole-blocking layer disposed on the first transparent electrode; an electron-transporting layer that is disposed on the hole-blocking layer and includes an electron-transporting semiconductor; a photosensitizing compound that is disposed on the surface of the electron-transporting semiconductor; a hole-transporting layer that is connected to the electron-transporting layer and includes a hole-transporting material; and a second electrode disposed on the hole-transporting layer, characterized in that the photoelectric conversion element includes an output extraction terminal part (8, 9) configured to extract electricity out from the photoelectric conversion element, and the output extraction terminal part (8, 9) is formed with a plurality of micropores piercing through the hole-blocking layer. a first substrate; a first transparent electrode disposed on the first substrate; a hole-blocking layer disposed on the first transparent electrode; an electron-transporting layer that is disposed on the hole-blocking layer and includes an electron-transporting semiconductor; a photosensitizing compound that is disposed on the surface of the electron-transporting semiconductor; a hole-transporting layer that is connected to the electron-transporting layer and includes a hole-transporting material; and a second electrode disposed on the hole-transporting layer, characterized in that the photoelectric conversion element includes an output extraction terminal part (8, 9) configured to extract electricity out from the photoelectric conversion element, and the output extraction terminal part (8, 9) is formed with a plurality of micropores piercing through the hole-blocking layer.