mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting data in a wireless radio network having a multiplicity of base stations (A1, A2,..., A6) for wirelessly sending and receiving data, wherein the base stations (A1, A2,..., A6) are wirelessly networked such that each base station (A1, A2,..., A6) can communicate wirelessly with one or more adjacent base stations (A1, A2,..., A6), wherein data is transmitted between a mobile station for wirelessly sending and/or receiving data and the base stations (A1, A2,..., A6) at least partially by means of wirelessly transmitted broadcast messages, wherein broadcast messages are forwarded by the base stations (A1, A2,..., A6) such that a base station (A1, A2,..., A6) which receives a broadcast message re-emits this broadcast message, characterised in that broadcast messages are exchanged between the mobile station and at least one base station (A1, A2,..., A6) within range of the mobile station and the base station or base stations (A1, A2,..., A6) within range of the mobile station also communicate to their adjacent base stations information regarding the radio connection used between the mobile station and the base stations (A1, A2,..., A6) within range of the mobile station, wherein the information regarding the radio connection comprises information as to the radio channel on which data transmission takes place between the mobile station and the base stations (A1, A2,..., A6) within range of the mobile station and wherein the base stations (A1, A2,..., A6) adjacent to the base stations (A1, A2,..., A6) within range of the mobile station adjust the radio channel contained in the information regarding the radio connection when they determine that they are within range of the mobile station.
A microparticle pharmaceutical preparation for use in a method of treating one or more oncologic, neurologic or autoimmune maladies in an animal subject (which may be a human animal subject), comprising: i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of an animal of the type of said subject animal and that disintegrates when exposed to basic conditions of targeted intestinal portions of said alimentary canal; and ii. rapamycin nanoparticles dispersed within said solid excipient matrix, said rapamycin nanoparticles comprising a micelle-inducing compound, such as sodium cholate, and a pharmaceutically active core; iii. said pharmaceutically active core comprising rapamycin; iv. said micelle-inducing compound naturally inducing formation of micelles within a solution of said micelle-inducing compound, said micelles having properties that promote stability of said rapamycin when said rapamycin nanoparticles are dispersed within said matrix; and v. the method comprising orally administering said preparation to said animal subject multiple times per week over a multi-week duration, in efficacious amounts, wherein said animal subject is in need of prevention or treatment, or delayed progression, of one or more oncologic, neurologic or autoimmune maladies. i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of an animal of the type of said subject animal and that disintegrates when exposed to basic conditions of targeted intestinal portions of said alimentary canal; and ii. rapamycin nanoparticles dispersed within said solid excipient matrix, said rapamycin nanoparticles comprising a micelle-inducing compound, such as sodium cholate, and a pharmaceutically active core; iii. said pharmaceutically active core comprising rapamycin; iv. said micelle-inducing compound naturally inducing formation of micelles within a solution of said micelle-inducing compound, said micelles having properties that promote stability of said rapamycin when said rapamycin nanoparticles are dispersed within said matrix; and v. the method comprising orally administering said preparation to said animal subject multiple times per week over a multi-week duration, in efficacious amounts, wherein said animal subject is in need of prevention or treatment, or delayed progression, of one or more oncologic, neurologic or autoimmune maladies.
A system, comprising: a restraint system configured to support a heat exchanger along a flow path within a duct, wherein the restraint system (18, 80) comprises: a first sleeve configured to extend between opposite first and second walls (92, 94) of the duct; a first cable extending through the first sleeve; and a first bumper coupled to the first sleeve, wherein the first bumper is configured to contact the heat exchanger; and a first tensioner (96, 98) coupled to the first cable, wherein the first tensioner (96, 98) is configured to provide a first tension in the first cable to adjust a stiffness of the restraint system and to adjust a natural frequency of the heat exchanger away from an excitation load frequency. a first sleeve configured to extend between opposite first and second walls (92, 94) of the duct; a first cable extending through the first sleeve; and a first bumper coupled to the first sleeve, wherein the first bumper is configured to contact the heat exchanger; and a first tensioner (96, 98) coupled to the first cable, wherein the first tensioner (96, 98) is configured to provide a first tension in the first cable to adjust a stiffness of the restraint system and to adjust a natural frequency of the heat exchanger away from an excitation load frequency.
A composition of formula: wherein: n is a number from 1 to 100; Y is a linking group having the formula: -CH 2 CH 2 -Z-CH 2 CH 2 -, wherein: Z is a C 4 to C 100 hydrocarbylene group comprising at least one aliphatic or aromatic ring and, optionally, includes at least one heteroatom; and/or wherein Y is a derivative of a linking agent selected from the group consisting of 1,9-decadiene, 1,4-pentadiene, divinylbenzene, divinyldiphenylsilane, divinyldimethylsilane, 1,4-bis(dimethyl(vinyl)silyl)benzene, 1,5-bis(dimethyl(vinyl)silyl)pentane, and 1,3-divinylcyclopentane; each R group is independently a substituted or unsubstituted aryl group or a substituted or unsubstituted cyclic alkyl group containing, optionally, at least one heteroatom; and two R groups attached to the same Al can be optionally covalently linked together. n is a number from 1 to 100; Y is a linking group having the formula: -CH 2 CH 2 -Z-CH 2 CH 2 -, wherein: Z is a C 4 to C 100 hydrocarbylene group comprising at least one aliphatic or aromatic ring and, optionally, includes at least one heteroatom; and/or wherein Y is a derivative of a linking agent selected from the group consisting of 1,9-decadiene, 1,4-pentadiene, divinylbenzene, divinyldiphenylsilane, divinyldimethylsilane, 1,4-bis(dimethyl(vinyl)silyl)benzene, 1,5-bis(dimethyl(vinyl)silyl)pentane, and 1,3-divinylcyclopentane; each R group is independently a substituted or unsubstituted aryl group or a substituted or unsubstituted cyclic alkyl group containing, optionally, at least one heteroatom; and two R groups attached to the same Al can be optionally covalently linked together. Z is a C 4 to C 100 hydrocarbylene group comprising at least one aliphatic or aromatic ring and, optionally, includes at least one heteroatom; and/or wherein Y is a derivative of a linking agent selected from the group consisting of 1,9-decadiene, 1,4-pentadiene, divinylbenzene, divinyldiphenylsilane, divinyldimethylsilane, 1,4-bis(dimethyl(vinyl)silyl)benzene, 1,5-bis(dimethyl(vinyl)silyl)pentane, and 1,3-divinylcyclopentane; each R group is independently a substituted or unsubstituted aryl group or a substituted or unsubstituted cyclic alkyl group containing, optionally, at least one heteroatom; and two R groups attached to the same Al can be optionally covalently linked together.
Turbomachine for generating power, having a rotor, wherein the rotor comprises a central retaining element in the form of a tie rod and rotor elements in the form of rotor disks arranged thereon, characterized in that a contact element is arranged in a region of the rotor between the retaining element and the rotor element, wherein the contact element comprises a temperature measurement device, wherein the contact element is mounted rotatably on an axle, wherein the axle is attached to the central retaining element.
A fibrous tape made from fibers comprising highly oriented polymer, the tape having a tenacity of at least 1.2 N/tex and an areal density of between 5 and 250 g/m 2, wherein the tape has a transversal strength of at least 0.5 MPa.
A method for making a dairy composition, the method comprising: (a) ultrafiltering a milk product to produce a UF permeate fraction and a UF retentate fraction; (b) nanofiltering the UF permeate fraction to produce a NF permeate fraction and a NF retentate fraction; (c) diafiltering the NF retentate fraction to produce a DF/NF permeate fraction and a DF/NF retentate fraction; (d)(i) subjecting the NF permeate fraction and the DF/NF permeate fraction to a reverse osmosis step to produce a concentrated mineral fraction and a milk water fraction; and (e)(i) combining at least the UF retentate fraction and the concentrated mineral fraction to form the dairy composition; or (d)(ii) subjecting the NF permeate fraction and the DF/NF permeate fraction to a forward osmosis step to produce a mineral concentrate and a milk water fraction; and (e)(ii) combining at least the UF retentate fraction and the mineral concentrate to form the dairy composition. (a) ultrafiltering a milk product to produce a UF permeate fraction and a UF retentate fraction; (b) nanofiltering the UF permeate fraction to produce a NF permeate fraction and a NF retentate fraction; (c) diafiltering the NF retentate fraction to produce a DF/NF permeate fraction and a DF/NF retentate fraction; (d)(i) subjecting the NF permeate fraction and the DF/NF permeate fraction to a reverse osmosis step to produce a concentrated mineral fraction and a milk water fraction; and (e)(i) combining at least the UF retentate fraction and the concentrated mineral fraction to form the dairy composition; or (d)(ii) subjecting the NF permeate fraction and the DF/NF permeate fraction to a forward osmosis step to produce a mineral concentrate and a milk water fraction; and (e)(ii) combining at least the UF retentate fraction and the mineral concentrate to form the dairy composition.
A sanitation assembly (1;1') comprising: a first chamber with a first volume for receiving a first fluid, and a second chamber with a second volume for receiving a second fluid, wherein the first volume communicates with an outlet of the assembly via a first valve mechanism configured to allow discharge of the fluid from the first volume to the outlet at a predefined first opening pressure, wherein the second volume communicates with the outlet of the assembly via a second valve mechanism configured to allow discharge of the fluid from the second volume to the outlet at a predefined second opening pressure, wherein the predefined second opening pressure of the second valve mechanism is higher than the predefined first opening pressure of the first valve mechanism, wherein the outlet of the assembly is connected to a head of a vacuum pump or vacuum bar, and wherein the first and second valve mechanisms (4, 5) are normally closed valves that are configured to open at sub-ambient pressure existing at the outlet side of the respective valves (4, 5). a first chamber with a first volume for receiving a first fluid, and a second chamber with a second volume for receiving a second fluid, wherein the first volume communicates with an outlet of the assembly via a first valve mechanism configured to allow discharge of the fluid from the first volume to the outlet at a predefined first opening pressure, wherein the second volume communicates with the outlet of the assembly via a second valve mechanism configured to allow discharge of the fluid from the second volume to the outlet at a predefined second opening pressure, wherein the predefined second opening pressure of the second valve mechanism is higher than the predefined first opening pressure of the first valve mechanism, wherein the outlet of the assembly is connected to a head of a vacuum pump or vacuum bar, and wherein the first and second valve mechanisms (4, 5) are normally closed valves that are configured to open at sub-ambient pressure existing at the outlet side of the respective valves (4, 5).
A rotary actuator comprising: a housing comprising an interior boundary that defines a central bore and comprises interior recesses; a chamber housing assembly disposed in the central bore and comprising an arcuate chamber, the arcuate chamber comprising a cavity, a fluid port in fluid communication with the cavity, and an open end, the interior boundary and an exterior boundary of the chamber housing assembly in concentric proximity to each other, the interior boundary comprising interior recesses and the exterior boundary comprising exterior recesses, each of the exterior recesses aligned with a respective one of the interior recesses to define a collection of circumferentially enclosed open spaces; pins residing between the interior boundary of the housing and the exterior boundary of the chamber housing assembly, each of the pins mated to one of the exterior recesses and a corresponding one of the interior recesses to maintain an orientation of the chamber housing assembly with respect to the housing; a rotor assembly rotatably journaled in the chamber housing assembly and comprising a rotary output shaft and a rotor arm extending radially outward from the rotary output shaft; and an arcuate-shaped piston disposed in the chamber housing assembly for reciprocal movement in the arcuate chamber through the open end, wherein a seal, the cavity, and the piston define a pressure chamber, and a portion of the piston connects to the rotor arm. a housing comprising an interior boundary that defines a central bore and comprises interior recesses; a chamber housing assembly disposed in the central bore and comprising an arcuate chamber, the arcuate chamber comprising a cavity, a fluid port in fluid communication with the cavity, and an open end, the interior boundary and an exterior boundary of the chamber housing assembly in concentric proximity to each other, the interior boundary comprising interior recesses and the exterior boundary comprising exterior recesses, each of the exterior recesses aligned with a respective one of the interior recesses to define a collection of circumferentially enclosed open spaces; pins residing between the interior boundary of the housing and the exterior boundary of the chamber housing assembly, each of the pins mated to one of the exterior recesses and a corresponding one of the interior recesses to maintain an orientation of the chamber housing assembly with respect to the housing; a rotor assembly rotatably journaled in the chamber housing assembly and comprising a rotary output shaft and a rotor arm extending radially outward from the rotary output shaft; and an arcuate-shaped piston disposed in the chamber housing assembly for reciprocal movement in the arcuate chamber through the open end, wherein a seal, the cavity, and the piston define a pressure chamber, and a portion of the piston connects to the rotor arm.
Container equipped with or incorporating by construction a metering device, said metering device comprising: - a means of assembly on a neck of the container containing a liquid to be poured out, - a tubular or internal element comprising a pouring spout and a transfer tube, - a cylindrical or external element including, coaxially, a shell of relatively wide cross section suitable for the passage of the transfer tube and a cap of the transfer tube of relatively narrow cross section, - a filling opening being provided in the shell together with an overflow opening, the level of which is determined with respect to that of the filling opening in order to determine a withdrawal volume (Vp), the tubular or internal element is placed coaxially within the cylindrical or external element, for together defining a withdrawal chamber between the shell and the transfer tube, and a metering chamber inside the cap, the withdrawal chamber being arranged above the metering chamber in a reference "normal" position of the said container, in which the said container rests on its base, these two chambers (22, 40) communicating with one another at a level located between the two said chambers with the aid of a communication opening, the said withdrawal chamber communicating with the outside, for example the inside of the container at the filling opening and at the overflow opening, defining between them, in the withdrawal chamber and in the inverted position of the said device, a withdrawal volume (Vp) which is by construction greater than the volume of the metering chamber, the withdrawal chamber being closed with respect to the outside in its lower part extending in terms of height from the communication opening so as to retain in the said withdrawal chamber, in the normal position, a predetermined surplus (Vs) of liquid whose level rises above the communication opening, the container being characterized in that the predetermined surplus (Vs) of the said liquid is retained in the withdrawal chamber and, when filling of the metering chamber is complete, this forms a column of liquid charging the measure (Vd) to be poured out, and, during that the said measure (Vd) is poured out from the metering chamber, the said surplus (Vs) is retained separately in the withdrawal chamber whilst the measure (Vd) of liquid is poured out simultaneously, away from the said surplus (Vs), from the metering chamber. - a means of assembly on a neck of the container containing a liquid to be poured out, - a tubular or internal element comprising a pouring spout and a transfer tube, - a cylindrical or external element including, coaxially, a shell of relatively wide cross section suitable for the passage of the transfer tube and a cap of the transfer tube of relatively narrow cross section, - a filling opening being provided in the shell together with an overflow opening, the level of which is determined with respect to that of the filling opening in order to determine a withdrawal volume (Vp),
A method for providing load control for a plurality of cooling units (140A-140D), the method comprising: allowing a flow of coolant through said each of the plurality of cooling units (140A-140D), wherein the flow of coolant is shared with the plurality of cooling units (140A-140D); providing desynchronized defrost cycles for each of the plurality of cooling units (140A-140D); determining, via each cooling unit, of the plurality of cooling units (140A-140D), a first defrost cycle, wherein a start time of the first defrost cycle is selected randomly within a predetermined time range, and wherein each cooling unit (140A-140D) determines the first defrost cycle independently without any communication with a centralized refrigeration system or with any of the other cooling units of the plurality of cooling units; determining, for each cooling unit, of the plurality of cooling units, periodic defrost cycles, wherein a start time of each of the periodic defrost cycles is selected periodically after the first defrost cycle; and denying the flow of coolant through each cooling unit of the plurality of cooling units (140A-140D), during the first defrost cycle and the periodic defrost cycles. allowing a flow of coolant through said each of the plurality of cooling units (140A-140D), wherein the flow of coolant is shared with the plurality of cooling units (140A-140D); providing desynchronized defrost cycles for each of the plurality of cooling units (140A-140D); determining, via each cooling unit, of the plurality of cooling units (140A-140D), a first defrost cycle, wherein a start time of the first defrost cycle is selected randomly within a predetermined time range, and wherein each cooling unit (140A-140D) determines the first defrost cycle independently without any communication with a centralized refrigeration system or with any of the other cooling units of the plurality of cooling units; determining, for each cooling unit, of the plurality of cooling units, periodic defrost cycles, wherein a start time of each of the periodic defrost cycles is selected periodically after the first defrost cycle; and denying the flow of coolant through each cooling unit of the plurality of cooling units (140A-140D), during the first defrost cycle and the periodic defrost cycles.
A process for the preparation of a controlled- or modified-release system of a biologically active substance, comprising the following steps: a) hydrolysis of hyaluronic acid, or a salt thereof, in an acid medium, at a pH ranging between 2 and 5; b) addition of a cellulose derivative to the hydrolysate obtained in step a); c) addition of a biologically active substance; d) addition of a first gelling agent; e) addition of mannose, optionally in combination with a second gelling agent, wherein the biologically active substance is an iron salt, preferably organic; and the first gelling agent is selected from the group consisting of calcium ions (Ca 2+) or magnesium ions (Mg 2+) or combinations thereof. a) hydrolysis of hyaluronic acid, or a salt thereof, in an acid medium, at a pH ranging between 2 and 5; b) addition of a cellulose derivative to the hydrolysate obtained in step a); c) addition of a biologically active substance; d) addition of a first gelling agent; e) addition of mannose, optionally in combination with a second gelling agent, the biologically active substance is an iron salt, preferably organic; and the first gelling agent is selected from the group consisting of calcium ions (Ca 2+) or magnesium ions (Mg 2+) or combinations thereof.
A method of transmitting control information and data, which are transmitted by a user equipment, UE, in a wireless communication system, the method comprising: determining a time resource and a frequency resource in which a scheduling assignment, SA, is to be transmitted, wherein the time resource and the frequency resource are included in an SA resource pool; transmitting, in the time resource and the frequency resource, the SA; and transmitting, in a data time resource correlated with the time resource and the frequency resource, data, wherein the data time resource corresponds to a time resource indication field, wherein a part of bits of the time resource indication field is indicated using a position of the time resource, and wherein remaining part of the bits of the time resource indication field are determined using a position of the frequency resource. determining a time resource and a frequency resource in which a scheduling assignment, SA, is to be transmitted, wherein the time resource and the frequency resource are included in an SA resource pool; transmitting, in the time resource and the frequency resource, the SA; and transmitting, in a data time resource correlated with the time resource and the frequency resource, data, wherein the data time resource corresponds to a time resource indication field, wherein a part of bits of the time resource indication field is indicated using a position of the time resource, and wherein remaining part of the bits of the time resource indication field are determined using a position of the frequency resource.