mhurhangee/ep-ind-claims huggingface dataset:
Angle-adjuster for a headrest, comprising a connection arm to the seat of a chair and a fixing unit to the headrest of said chair, characterised in that said fixing unit to the headrest comprises a connection plate, said connection arm to the seat comprising a main connection body having a main through hole, and a hole communicating with said main through hole, said hole housing a plurality of fan-shaped blocks equally distributed along the circumference of said hole and facing said main through hole, between two adjacent fan-shaped blocks a positioning seat is defined in which a locking insert is housed, said angle-adjuster comprising a stop flange having a through hole and a plurality of arched stop blocks axially projecting with respect to said stop flange towards the inside of said main through hole, so as to each face a respective positioning seat at a respective locking insert, said angle-adjuster comprising a cylindrical body extending longitudinally firmly constrained in rotation to said connection plate, said cylindrical body passing through said main through hole of said main connection body, through said hole, and through said through hole of said stop flange, the portion of said inserts projecting radially towards the inside of said main through hole being configured to engage, through binding, with the side surface of said cylindrical body so as to lock the rotation of said cylindrical body inside said main through hole in a first direction of rotation, the rotation of said cylindrical body inside said main through hole in a second direction of rotation opposite to said first direction of rotation on the other hand being allowed, said stop flange being able to be set in rotation at a predetermined angle between said connection arm and said fixing unit so that said arched blocks press against said inserts freeing them from the binding configuration with said cylindrical body and allowing the rotation of said cylindrical body inside said main through hole also in said first direction of rotation.
Electrical circuit for producing chip card modules, comprising a substrate and at least one conductive track, this conductive track being at least partially covered with a visible surface layer consisting of a rhodium alloy, deposited by electrodeposition on the conductive track, characterized in that the rhodium alloy layer has a thickness of between 10 nanometres and 150 nanometres, by the fact that the concentration by weight of rhodium in the rhodium alloy is greater than or equal to 50% and by the fact that the rhodium alloy is deposited on at least one barrier layer deposited on the conductive track, prior to the deposition by electrodeposition of the surface layer of the rhodium alloy, this barrier layer comprising at least one of the elements from the following list: pure nickel, nickel-phosphorus alloy and cobalt-tungsten alloy.
A method of preserving a topical cosmetic, toiletry or pharmaceutical formulation against microbiological contamination or growth, comprising adding an effective amount of at least one hydroxamic acid, or a salt and/or a complex thereof.
An energy storage container, comprising: a box body, wherein the box body comprises a function compartment and a battery compartment, the function compartment and the battery compartment are sequentially distributed in a length direction of the box body, and the function compartment comprises a power distribution room, and a controller room; the energy storage container being characterized in that the controller room is located above the power distribution room, the controller room is provided with an air outlet on a side wall in a width direction of the box body, and the controller room is provided with an air inlet on a side wall in the length direction of the box body, the air inlet and the air outlet form a heat dissipation channel; and the power distribution room is provided with a side-open door on the side wall in the width direction of the box body, and a heat dissipation apparatus is disposed on the side-open door. a box body, wherein the box body comprises a function compartment and a battery compartment, the function compartment and the battery compartment are sequentially distributed in a length direction of the box body, and the function compartment comprises a power distribution room, and a controller room; the energy storage container being characterized in that the controller room is located above the power distribution room, the controller room is provided with an air outlet on a side wall in a width direction of the box body, and the controller room is provided with an air inlet on a side wall in the length direction of the box body, the air inlet and the air outlet form a heat dissipation channel; and the power distribution room is provided with a side-open door on the side wall in the width direction of the box body, and a heat dissipation apparatus is disposed on the side-open door.
A method for generating images using a magnetic resonance imaging ("MRI") system, the method comprising: a) providing a plurality of constraints for imaging a target at a selected diffusion weighting, the plurality of constraints including gradient constraints for diffusion encoding gradients, gradient moment constraints for diffusion encoding gradients, and hardware constraints; b) applying an optimization framework to generate an optimized diffusion encoding gradient waveform satisfying the plurality of constraints, wherein applying the optimization framework includes performing an iterative process to minimize a timing parameter comprising a gradient duration during a diffusion encoding period, wherein performing the iterative process includes successive binary searches that divide a timing parameter search space with each iteration of an objective function G t = argmax G β G where β = ∫ 0 T Diff F t dt, F t = ∫ 0 t G τ dτ, T Diff is the end of diffusion encoding and G(t) is the gradient amplitude as a function of time, and wherein performing the iterative process further includes performing iterations of the objective function to determine a maximum β that corresponds to a maximum diffusion weighting and adjust the timing parameter until the maximum diffusion weighting is equivalent to the selected diffusion weighting; c) performing, using the MRI system, a pulse sequence comprising the optimized diffusion encoding gradient waveform to generate diffusion-weighted data; and d) generating at least one image of the target using the diffusion-weighted data. a) providing a plurality of constraints for imaging a target at a selected diffusion weighting, the plurality of constraints including gradient constraints for diffusion encoding gradients, gradient moment constraints for diffusion encoding gradients, and hardware constraints; b) applying an optimization framework to generate an optimized diffusion encoding gradient waveform satisfying the plurality of constraints, wherein applying the optimization framework includes performing an iterative process to minimize a timing parameter comprising a gradient duration during a diffusion encoding period, wherein performing the iterative process includes successive binary searches that divide a timing parameter search space with each iteration of an objective function G t = argmax G β G where β = ∫ 0 T Diff F t dt, F t = ∫ 0 t G τ dτ, T Diff is the end of diffusion encoding and G(t) is the gradient amplitude as a function of time, and wherein performing the iterative process further includes performing iterations of the objective function to determine a maximum β that corresponds to a maximum diffusion weighting and adjust the timing parameter until the maximum diffusion weighting is equivalent to the selected diffusion weighting; c) performing, using the MRI system, a pulse sequence comprising the optimized diffusion encoding gradient waveform to generate diffusion-weighted data; and d) generating at least one image of the target using the diffusion-weighted data.
A control method performed by a terminal in a wireless communication system including a network of base stations, the method comprising: performing discontinuous reception of signals from a serving base station by listening for a paging message, with a discontinuous reception periodicity having a first interval (T 1); responsive to detection of occurrence of an interval decrease triggering event, performing radio link measurements to determine the need for cell reselection, with a measurement periodicity having a second interval (T 2), wherein the second interval is shorter than the first interval, wherein said interval decrease triggering event is a cell reselection made by the terminal from the serving base station to another base station in the network, wherein the second interval is maintained for at least a predetermined period (Ts) after the interval decrease triggering event, and, if the interval decrease triggering event is again detected within the predetermined period (Ts), for an additional duration of said predetermined period (Ts) applied after the new interval decrease triggering event. performing discontinuous reception of signals from a serving base station by listening for a paging message, with a discontinuous reception periodicity having a first interval (T 1); responsive to detection of occurrence of an interval decrease triggering event, performing radio link measurements to determine the need for cell reselection, with a measurement periodicity having a second interval (T 2), wherein the second interval is shorter than the first interval, wherein said interval decrease triggering event is a cell reselection made by the terminal from the serving base station to another base station in the network, wherein the second interval is maintained for at least a predetermined period (Ts) after the interval decrease triggering event, and, if the interval decrease triggering event is again detected within the predetermined period (Ts), for an additional duration of said predetermined period (Ts) applied after the new interval decrease triggering event.
A zirconia dental mill blank, comprising a milling target part composed of a composite material, the composite material comprising: a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, wherein, in the composite material, the preliminarily sintered body is a microporous preliminarily sintered body having a relative density of 45 to 65% and having pores opened outward, and the fine particles of the inorganic oxide are held in the pores of the microporous preliminarily sintered body. the composite material comprising: a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, a matrix comprising a preliminarily sintered body of crystalline zirconium oxide powder comprising a stabilizer and an aluminum oxide additive; and fine particles of an inorganic oxide, provided that zirconium oxide, an inorganic oxide functioning as a stabilizer, and aluminum oxide are excluded, wherein, in the composite material, the preliminarily sintered body is a microporous preliminarily sintered body having a relative density of 45 to 65% and having pores opened outward, and the fine particles of the inorganic oxide are held in the pores of the microporous preliminarily sintered body.
A gas turbine comprising a compressor, a rotor for rotating around a rotation axis, and an air bleeder tube, wherein the air bleeder tube is configured so that a portion of compressed air is bled from the compressor at a startup timing and discharged into an exhaust duct through the air bleeder tube, wherein a main flow of combustion gas along an axial direction of the rotation axis is not obstructed by an arrangement of the air bleeder tube in that the air bleeder tube is passed through an inside of a structural element connected to a bearing for supporting the rotor, and an outlet of the air bleeder tube is arranged in an inner diameter portion of an exhaust diffuser and is directed toward the downstream of the main flow of combustion gas.
A microfluidic device comprising: a first layer defining an infusate channel (104; 501) having an inlet and an outlet, the infusate channel configured to have a first pressure profile; a second layer defining a blood channel (102; 503) complementary to and in fluidic communication with the infusate channel, the blood channel configured to have a second pressure profile; an interchannel flow barrier (108; 504) separating the infusate channel and the blood channel allowing a portion of fluid flowing into the inlet of the infusate channel to flow through the interchannel flow barrier and into the blood channel; a third layer defining a filtrate channel (106; 502) complementary to and in fluidic communication with the blood channel, the filtrate channel configured to have a third pressure profile; a second interchannel flow barrier (110; 504) separating the blood channel and the filtrate channel; and a pressure control feature characterised in that said pressure control feature comprises a filtrate fluid circuit including a recirculation pump coupling an inlet and an outlet of the filtrate channel, wherein the recirculation pump is configured to control a filtrate flow rate through the filtrate channel and to control a difference between the second pressure profile and the third pressure profile along a length of the filtrate and blood channels such that the pressure difference between blood channel and the filtrate channel varies by less than 50% of the pressure difference between the blood channel and filtrate channel at an upstream end of the blood channel and the filtrate channel. a first layer defining an infusate channel (104; 501) having an inlet and an outlet, the infusate channel configured to have a first pressure profile; a second layer defining a blood channel (102; 503) complementary to and in fluidic communication with the infusate channel, the blood channel configured to have a second pressure profile; an interchannel flow barrier (108; 504) separating the infusate channel and the blood channel allowing a portion of fluid flowing into the inlet of the infusate channel to flow through the interchannel flow barrier and into the blood channel; a third layer defining a filtrate channel (106; 502) complementary to and in fluidic communication with the blood channel, the filtrate channel configured to have a third pressure profile; a second interchannel flow barrier (110; 504) separating the blood channel and the filtrate channel; and a pressure control feature characterised in that said pressure control feature comprises a filtrate fluid circuit including a recirculation pump coupling an inlet and an outlet of the filtrate channel, wherein the recirculation pump is configured to control a filtrate flow rate through the filtrate channel and to control a difference between the second pressure profile and the third pressure profile along a length of the filtrate and blood channels such that the pressure difference between blood channel and the filtrate channel varies by less than 50% of the pressure difference between the blood channel and filtrate channel at an upstream end of the blood channel and the filtrate channel.
A method for synthesizing rebaudioside M or rebaudioside D and rebaudioside M, the method comprising: providing a reaction mixture comprising: (i) rebaudioside A; (ii) one of (a) a UGT76G1 UDP-glycosyltransferase (b) a UGT76G1 UDP-glycosyltransferase and a sucrose synthase separately provided in the reaction mixture and (c) a UDP-glycosyltransferase fusion enzyme comprising a UGT76G1 UDP-glycosyltransferase domain coupled to a sucrose synthase domain; (iii) the HVI UDP-glycosyltransferase having the amino acid sequence of SEQ.ID. NO: 5; and (iv) UDP-glucose as a substrate or, if a sucrose synthase is present, sucrose, UDP and UDP-glucose as substrates and incubating the reaction mixture for a sufficient time to produce rebaudioside M or rebaudioside M together with rebaudioside D, wherein a glucose is covalently coupled to rebaudioside A to produce rebaudioside D, and a glucose is covalently coupled to the rebaudioside D to produce rebaudioside M. providing a reaction mixture comprising: (i) rebaudioside A; (ii) one of (a) a UGT76G1 UDP-glycosyltransferase (b) a UGT76G1 UDP-glycosyltransferase and a sucrose synthase separately provided in the reaction mixture and (c) a UDP-glycosyltransferase fusion enzyme comprising a UGT76G1 UDP-glycosyltransferase domain coupled to a sucrose synthase domain; (iii) the HVI UDP-glycosyltransferase having the amino acid sequence of SEQ.ID. NO: 5; and (iv) UDP-glucose as a substrate or, if a sucrose synthase is present, sucrose, UDP and UDP-glucose as substrates and (i) rebaudioside A; (ii) one of (a) a UGT76G1 UDP-glycosyltransferase (b) a UGT76G1 UDP-glycosyltransferase and a sucrose synthase separately provided in the reaction mixture and (c) a UDP-glycosyltransferase fusion enzyme comprising a UGT76G1 UDP-glycosyltransferase domain coupled to a sucrose synthase domain; (iii) the HVI UDP-glycosyltransferase having the amino acid sequence of SEQ.ID. NO: 5; and (iv) UDP-glucose as a substrate or, if a sucrose synthase is present, sucrose, UDP and UDP-glucose as substrates and incubating the reaction mixture for a sufficient time to produce rebaudioside M or rebaudioside M together with rebaudioside D, wherein a glucose is covalently coupled to rebaudioside A to produce rebaudioside D, and a glucose is covalently coupled to the rebaudioside D to produce rebaudioside M.
A moveable T-divider comprising: a fixed portion configured to be disposed, in use, on an upper, interior surface of a double cart bay in an aircraft galley; a moveable portion (106,110) configured to be disposed on the upper, interior surface of the double cart bay, the moveable portion deflectable from a stowed orientation to a removal orientation; and a pivot element pivotably connecting the moveable portion to the upper, interior surface at a point proximal to the fixed portion, wherein the moveable T-divider: is arranged to create a physical barrier to restrict lateral movement of one or more carts in the double cart bay when the moveable portion is in a stowed orientation; and is arranged to remove the physical barrier to allow the one or more carts to be removed from the double cart bay around an obstruction when in a removal orientation; and wherein the moveable T-divider further comprises a track disposed on the upper, interior surface of the double cart bay, the track defining a path of deflection of the moveable portion. a fixed portion configured to be disposed, in use, on an upper, interior surface of a double cart bay in an aircraft galley; a moveable portion (106,110) configured to be disposed on the upper, interior surface of the double cart bay, the moveable portion deflectable from a stowed orientation to a removal orientation; and a pivot element pivotably connecting the moveable portion to the upper, interior surface at a point proximal to the fixed portion, wherein the moveable T-divider: is arranged to create a physical barrier to restrict lateral movement of one or more carts in the double cart bay when the moveable portion is in a stowed orientation; and is arranged to remove the physical barrier to allow the one or more carts to be removed from the double cart bay around an obstruction when in a removal orientation; and wherein the moveable T-divider further comprises a track disposed on the upper, interior surface of the double cart bay, the track defining a path of deflection of the moveable portion. is arranged to create a physical barrier to restrict lateral movement of one or more carts in the double cart bay when the moveable portion is in a stowed orientation; and is arranged to remove the physical barrier to allow the one or more carts to be removed from the double cart bay around an obstruction when in a removal orientation; and wherein the moveable T-divider further comprises a track disposed on the upper, interior surface of the double cart bay, the track defining a path of deflection of the moveable portion.
A curable composition comprising a polymer including a structural unit represented by the following general formula, and a polythiol compound having at least two thiol groups in one molecule: wherein R 1, R 2 and R 3 each independently represent a hydrogen atom, an alkyl group having 1 to 18 carbon atoms, an alkenyl group having 2 to 18 carbon atoms or an aralkyl group having 7 to 18 carbon atoms, R 4 represents a hydrogen atom or a methyl group, and n is an arbitrary integer equal to or greater than 0, and wherein at least one of R 1, R 2 and R 3 is one of the above groups having one or more carbon atoms and/or n is an integer equal to or greater than 1.
Cap for a pen comprising a capillary applicator element on its front end, having a central receiving space for the front end which can be accessed via an insertion opening, wherein a reservoir for application liquid is present in the cap, said reservoir encompassing the receiving space in the peripheral direction at least partially, and a guide element made from a capillary material and a fluidic connection between the reservoir and the guide element are present, wherein the guide element is arranged in the cap in such a way that, when a pen is inserted with its capillary application element, it is in contact with a contact region, characterised in that the reservoir has a filling opening which is closed with a closure element.