mhurhangee/ep-ind-claims huggingface dataset:
An active double-clad fiber comprising the following four layers: a. a high refractive index core having a radius in the range of 1μm to 2μm; b. an inner annular clad layer doped with active ions surrounding the core having a radius of 40μm; c. an outer annular clad layer having a radius in the range of 100μm to 200μm surrounding the inner clad layer; and d. an annular low refractive index outer coating layer surrounding the outer clad layer; wherein: the dimensions of the layers and the properties of the materials of the layers of the fiber provide discrimination of between 4 and 6 against higher modes, thereby maintaining single mode operation in laser systems; the single transverse mode guided by the core has a diameter of at least 80μm; and the refractive indices of the inner and outer clad layers are less than the refractive index of the core and larger than the refractive index of outer coating layer; and therefore, the diameter of the core is smaller than the diameter of the large single transverse mode, thereby allowing guiding and amplification to take place mainly in the inner doped annular clad layer. a. a high refractive index core having a radius in the range of 1μm to 2μm; b. an inner annular clad layer doped with active ions surrounding the core having a radius of 40μm; c. an outer annular clad layer having a radius in the range of 100μm to 200μm surrounding the inner clad layer; and d. an annular low refractive index outer coating layer surrounding the outer clad layer; the dimensions of the layers and the properties of the materials of the layers of the fiber provide discrimination of between 4 and 6 against higher modes, thereby maintaining single mode operation in laser systems; the single transverse mode guided by the core has a diameter of at least 80μm; and the refractive indices of the inner and outer clad layers are less than the refractive index of the core and larger than the refractive index of outer coating layer; and therefore, the diameter of the core is smaller than the diameter of the large single transverse mode, thereby allowing guiding and amplification to take place mainly in the inner doped annular clad layer.
A feed supplement for ruminants, swine and poultry comprising: the reaction product of a water soluble polycarboxylic acid metal salt with pendant carboxylic acid groups and an isoacid selected from the group consisting of isobutyric, isovaleric, 2-methyl-butyric and valeric acids; wherein the water soluble polycarboxylic acid is selected from the group pectin, alginic acid, and carboxymethyl cellulose; and wherein the metal of the metal salt is selected from calcium, magnesium, zinc, manganese, copper and iron.
A method for temperature calibration and determination of a temperature in a scene, wherein the method comprises: - at each time point of a plurality of time points in a first period of time, collecting an ambient temperature representing a temperature at a first part of the scene to obtain collected ambient temperatures spanning over a range of ambient temperatures, and, by means of a thermal camera, collecting one or more thermal image sensor signal values corresponding to the collected ambient temperatures and relating to the first part of the scene, wherein the first part of the scene is a background part of the scene; - determining a calibration function based on the collected ambient temperatures and the one or more thermal image sensor signal values corresponding to each of the collected ambient temperatures, wherein the calibration function gives temperature as a function of thermal image sensor value; - in a second period of time and by means of the thermal camera, capturing a thermal image of the scene comprising thermal image sensor signal values relating to a second part of the scene; and - in the second period of time, determining a temperature at the second part of the scene based on the calibration function and based on one or more thermal image sensor signal values comprised in the captured thermal image of the scene and relating to the second part of the scene. - at each time point of a plurality of time points in a first period of time, collecting an ambient temperature representing a temperature at a first part of the scene to obtain collected ambient temperatures spanning over a range of ambient temperatures, and, by means of a thermal camera, collecting one or more thermal image sensor signal values corresponding to the collected ambient temperatures and relating to the first part of the scene, wherein the first part of the scene is a background part of the scene; - determining a calibration function based on the collected ambient temperatures and the one or more thermal image sensor signal values corresponding to each of the collected ambient temperatures, wherein the calibration function gives temperature as a function of thermal image sensor value; - in a second period of time and by means of the thermal camera, capturing a thermal image of the scene comprising thermal image sensor signal values relating to a second part of the scene; and - in the second period of time, determining a temperature at the second part of the scene based on the calibration function and based on one or more thermal image sensor signal values comprised in the captured thermal image of the scene and relating to the second part of the scene.
A pharmaceutical composition comprising a synergistic combination of benzydamine and an imidazole-antimycotic or a salt thereof, and at least one pharmaceutically acceptable excipient, for use in the treatment of Candida mycosis.
Method for operating a vehicle comprising at least one step of driving in manual mode in which a longitudinal displacement and a lateral displacement are controlled by a human driver and at least one step of driving in autonomous mode in which the longitudinal displacement and the lateral displacement are controlled by an automated system, comprising: - a step of alerting the human driver activated at least in autonomous mode when the automated system receives a first distance which separates the vehicle from an end of zone in which the autonomous mode is authorized; and - a step of automatically stopping the vehicle before reaching the end of zone, activated in autonomous mode when the human driver does not take back control of the vehicle after the reception of said first distance by the automated system; characterized in that the automated system computes, from a maximum speed authorized over said first distance, a second distance making it possible to stop the vehicle as a function of a deceleration accessed and/or computed by the automated system to be used in the automatic stopping step. - a step of alerting the human driver activated at least in autonomous mode when the automated system receives a first distance which separates the vehicle from an end of zone in which the autonomous mode is authorized; and - a step of automatically stopping the vehicle before reaching the end of zone, activated in autonomous mode when the human driver does not take back control of the vehicle after the reception of said first distance by the automated system;
A binding molecule that is a chimeric protein comprising at least one pharmacologically active agent, at least two binding sites comprised in single domain antibodies that bind to TMEM30A, and an Fc region comprising a first Fc moiety and a second Fc moiety, wherein the at least two binding sites that bind to TMEM30A are each fused i) directly or ii) via an intervening amino acid sequence to the N-terminus of the first Fc moiety and the second Fc moiety, respectively, wherein the Fc region specifically binds to the FcRn receptor.
Method for detecting and optimizing a three-dimensional surface geometry, which is stored in a voxel-grid-based notation, characterized in that during a first instant of detection, a clone of at least one part of the surface geometry is generated, in that the clone of the surface geometry is processed independently of the surface geometry, and in that the processed clone of the surface geometry and the surface geometry are brought together again at a second instant during the detection.
A battery housing structure (1000,2000,4000,5000) comprising: at least one battery including: at least one electric cell for a sodium-sulfur battery; a container provided with a first wall having a relatively high thermal conductivity and a second wall (1102,1104,1106) having a relatively low thermal conductivity, and configured to house said at least one electric cell therein; an electrode terminal penetrating said second wall (1102,1104,1106); and a wiring for electrically connecting said at least one electric cell and said electrode terminal to each other inside said container; and a battery housing (1004,4004,5004) that houses said at least one battery therein, said battery housing (1004,4004,5004) including a plate (1030,2030) having a first portion (1202,2202) overlapping the outer surface of said first wall and a second portion (1204,2204) surrounding said first portion (1202,2202) and protruding from the outer surface of said first wall, said plate (1030,2030) defining a first main surface (1210,2210) that is brought into direct contact with the outer surface of said first wall at said first portion (1202,2202) and is apart from said container at said second portion (1204,2204) and a second main surface (1214,2214) exposed to a space, to which heat is allowed to radiate. at least one battery including: at least one electric cell for a sodium-sulfur battery; a container provided with a first wall having a relatively high thermal conductivity and a second wall (1102,1104,1106) having a relatively low thermal conductivity, and configured to house said at least one electric cell therein; an electrode terminal penetrating said second wall (1102,1104,1106); and a wiring for electrically connecting said at least one electric cell and said electrode terminal to each other inside said container; and a battery housing (1004,4004,5004) that houses said at least one battery therein, said battery housing (1004,4004,5004) including a plate (1030,2030) having a first portion (1202,2202) overlapping the outer surface of said first wall and a second portion (1204,2204) surrounding said first portion (1202,2202) and protruding from the outer surface of said first wall, said plate (1030,2030) defining a first main surface (1210,2210) that is brought into direct contact with the outer surface of said first wall at said first portion (1202,2202) and is apart from said container at said second portion (1204,2204) and a second main surface (1214,2214) exposed to a space, to which heat is allowed to radiate.
A method of authenticating a user, the method comprising: generating at a validation server a unique user ID number and matching encryption key corresponding to the user; transmitting the unique user ID number and matching encryption key to a user device; generating a temporary access code based on the encryption key on the user device; providing the unique user ID number and temporary access code to at least one organization server adapted to run on at least one computer separately maintained by independent host organizations; transmitting the unique user ID number and temporary access code from the at least one organization server to the validation server; retrieving the encryption key matching the unique user ID number previously generated at the validation server and generating a second code on the validation server in the same fashion as the temporary access code was generated; performing on the validation server a verification of the unique user ID number and temporary access code by comparing the second code and the temporary access code to obtain a validation result; transmitting the validation result to the at least one organization server; and authenticating the user at the at least one organization based on the validation result, wherein the validation server is adapted to run on at least one computer that is maintained by a first organization that is independent and separate from the independent host organizations and their respective organization servers, and wherein the unique user ID is non-secret and shared with each of the independent host organizations. generating at a validation server a unique user ID number and matching encryption key corresponding to the user; transmitting the unique user ID number and matching encryption key to a user device; generating a temporary access code based on the encryption key on the user device; providing the unique user ID number and temporary access code to at least one organization server adapted to run on at least one computer separately maintained by independent host organizations; transmitting the unique user ID number and temporary access code from the at least one organization server to the validation server; retrieving the encryption key matching the unique user ID number previously generated at the validation server and generating a second code on the validation server in the same fashion as the temporary access code was generated; performing on the validation server a verification of the unique user ID number and temporary access code by comparing the second code and the temporary access code to obtain a validation result; transmitting the validation result to the at least one organization server; and authenticating the user at the at least one organization based on the validation result, wherein the validation server is adapted to run on at least one computer that is maintained by a first organization that is independent and separate from the independent host organizations and their respective organization servers, and wherein the unique user ID is non-secret and shared with each of the independent host organizations.
A hybrid osteochondral plug (100, 200, 300, 400, 500), characterized by: a base (10, 210) having a porous region formed of metal or PEEK and with a pattern porosity similar to the pattern porosity of cancellous bone, the base (10, 210) being configured to be implanted in or on bone so that the porous substrate interfaces with the bone when the plug (100, 200, 300, 400, 500) is implanted into a patient; a barrier layer over and in contact with the base (10, 210); and a top over and in contact with the barrier layer, the top being formed of polymer having similar compressive resistance as that of cartilage, wherein the hybrid osteochondral plug (100, 200, 300, 400, 500) is formed by providing an opening in the base (10, 210) and in the barrier layer and then injecting molding a polymer through the opening in the base (10, 210) and in the barrier layer, to permanently attach the polymer to the base (10, 210). a base (10, 210) having a porous region formed of metal or PEEK and with a pattern porosity similar to the pattern porosity of cancellous bone, the base (10, 210) being configured to be implanted in or on bone so that the porous substrate interfaces with the bone when the plug (100, 200, 300, 400, 500) is implanted into a patient; a barrier layer over and in contact with the base (10, 210); and a top over and in contact with the barrier layer, the top being formed of polymer having similar compressive resistance as that of cartilage, wherein the hybrid osteochondral plug (100, 200, 300, 400, 500) is formed by providing an opening in the base (10, 210) and in the barrier layer and then injecting molding a polymer through the opening in the base (10, 210) and in the barrier layer, to permanently attach the polymer to the base (10, 210).
A mold for molding hollow glass articles (A, A1, A2, A3), particularly containers such as salad containers, bowls or the like, which are bored through, that is have a shape with at least one through hole or bore (FP, A1', A2', A3') formed through the walls or thickness of the glass article, comprising: three distinct and separable parts (11, 12, 13) that is: - a die defining the outer shape of the glass container to be molded, - a plunger defining the inner shape of the glass container to be molded, and - a closing ring, wherein said die is adapted to receive a glass gob in a plastic or molten state, and said three parts (11, 12, 13) are designed to be pressed onto one another to close the mold, and hence cause pressing and expansion of the molten glass gob in the cavity of the mold and to mold and form the glass article or container, said mold being characterized in that said die has a monolithic construction, composed of one piece, and in that at least one of said closing ring and said one-piece die has a protruding portion (13a, 13', 11') defining the shape of the through hole or bore to be molded and formed in the glass container. three distinct and separable parts (11, 12, 13) that is: - a die defining the outer shape of the glass container to be molded, - a plunger defining the inner shape of the glass container to be molded, and - a closing ring, - a die defining the outer shape of the glass container to be molded, - a plunger defining the inner shape of the glass container to be molded, and - a closing ring, wherein said die is adapted to receive a glass gob in a plastic or molten state, and said three parts (11, 12, 13) are designed to be pressed onto one another to close the mold, and hence cause pressing and expansion of the molten glass gob in the cavity of the mold and to mold and form the glass article or container, said mold being characterized in that said die has a monolithic construction, composed of one piece, and in that at least one of said closing ring and said one-piece die has a protruding portion (13a, 13', 11') defining the shape of the through hole or bore to be molded and formed in the glass container.
Process for building tyres, including: arranging a carcass sleeve including at least one carcass ply and a pair of annular anchoring structures; arranging a toroidal forming drum in a first radially contracted operational condition; arranging said carcass sleeve in a position radially external to said forming drum; toroidally shaping said at least one carcass sleeve against at least one radially inner surface of an annular contrast element, while said forming drum is positioned inside the carcass sleeve; expanding said forming drum up to a second radially expanded operational condition; coupling the toroidally shaped carcass sleeve to the forming drum in said second operational condition; wherein during the shaping, the annular contrast element exerts a radial containment action on the carcass sleeve, whereby adapting the shaping thereof for subsequent coupling with the forming drum, arranging said forming drum, coupled to said carcass sleeve in the proximity of at least one application device of additional components externally on said carcass sleeve. arranging a carcass sleeve including at least one carcass ply and a pair of annular anchoring structures; arranging a toroidal forming drum in a first radially contracted operational condition; arranging said carcass sleeve in a position radially external to said forming drum; toroidally shaping said at least one carcass sleeve against at least one radially inner surface of an annular contrast element, while said forming drum is positioned inside the carcass sleeve; expanding said forming drum up to a second radially expanded operational condition; coupling the toroidally shaped carcass sleeve to the forming drum in said second operational condition; wherein during the shaping, the annular contrast element exerts a radial containment action on the carcass sleeve, whereby adapting the shaping thereof for subsequent coupling with the forming drum, arranging said forming drum, coupled to said carcass sleeve in the proximity of at least one application device of additional components externally on said carcass sleeve.
A method for updating radio access technology related characteristic of a radio access network device, characterized in that the method, performed by a core network node, comprising: receiving a request of a service applying the radio access technology related characteristic, the request is received from a terminal device through the radio access network device configured to include an identifier of the radio access network device to the request, determining, in response to a detection that the radio access network device does not support the requested service a capability to update the radio access network device by applying the identifier of the radio access network device in the determining, retrieving, in response to a detection that the radio access network device is updateable, data package to update at least the radio access network device, and delivering the data package to the radio access network device for updating the radio access network device to support the requested radio access technology related characteristic requested by the terminal device. receiving a request of a service applying the radio access technology related characteristic, the request is received from a terminal device through the radio access network device configured to include an identifier of the radio access network device to the request, determining, in response to a detection that the radio access network device does not support the requested service a capability to update the radio access network device by applying the identifier of the radio access network device in the determining, retrieving, in response to a detection that the radio access network device is updateable, data package to update at least the radio access network device, and delivering the data package to the radio access network device for updating the radio access network device to support the requested radio access technology related characteristic requested by the terminal device.
A method for debugging an internet of things, loT, system including sensor devices, receivers and a storage system, comprising: acquiring an output from a first sensor device and encapsulating the output in a mark-up language having human-readable tags and data to define encapsulated data, at the first sensor device; first communicating the encapsulated data, in a serial data transfer stream, to a receiver via a wireless connection between the first sensor device and the receiver; generating, at the first sensor device, a first log file of the serial data transfer stream of the encapsulated data, as sent from the first sensor device to the receiver, wherein the first log file is in the mark-up language; receiving, via the wireless connection, the serial data transfer stream of the encapsulated data at the receiver and generating a second log file of the serial data transfer stream of the encapsulated data as received by the receiver from the first sensor device, wherein the second log file is in the mark-up language; and comparing the first log file and the second log file to identify if differences exist between the between the first log file and the second log file. acquiring an output from a first sensor device and encapsulating the output in a mark-up language having human-readable tags and data to define encapsulated data, at the first sensor device; first communicating the encapsulated data, in a serial data transfer stream, to a receiver via a wireless connection between the first sensor device and the receiver; generating, at the first sensor device, a first log file of the serial data transfer stream of the encapsulated data, as sent from the first sensor device to the receiver, wherein the first log file is in the mark-up language; receiving, via the wireless connection, the serial data transfer stream of the encapsulated data at the receiver and generating a second log file of the serial data transfer stream of the encapsulated data as received by the receiver from the first sensor device, wherein the second log file is in the mark-up language; and comparing the first log file and the second log file to identify if differences exist between the between the first log file and the second log file.