mhurhangee/patent-ind-claim-en huggingface dataset:
Method of providing a layer of solid electrolyte , the method comprising: - providing a host substrate including a crystalline solid electrolyte layer, - transferring said crystalline solid electrolyte layer from the host substrate to a receiver substrate , wherein the layer transfer technique (S11) comprises a step of assembling (S2) the host substrate to the receiver substrate , the solid electrolyte layer being between said substrates, and after the assembling step, a step of thinning (S3) the host substrate ; characterized by the layer of solid electrolyte being a monocrystalline layer; and thinning (S3) the host substrate by etching, grinding, or polishing. - providing a host substrate including a crystalline solid electrolyte layer, - transferring said crystalline solid electrolyte layer from the host substrate to a receiver substrate , wherein the layer transfer technique (S11) comprises a step of assembling (S2) the host substrate to the receiver substrate , the solid electrolyte layer being between said substrates, and after the assembling step, a step of thinning (S3) the host substrate ; the layer of solid electrolyte being a monocrystalline layer; and thinning (S3) the host substrate by etching, grinding, or polishing.
A process for preparing Crisaborole in crystalline Form 1 having an XRPD spectrum wherein the most intense peaks, measured using Cu Kα radiation (λ = 1.54 Å), fall at 6.0, 12.1, 14.1, and 15.4 ± 0.2° in 2θ, comprising: i) the hydrolysis of Crisaborole C 1 -C 5 alkyl ester of formula ( X ) wherein R 1 is a C 1 -C 5 alkyl group. i) the hydrolysis of Crisaborole C 1 -C 5 alkyl ester of formula ( X ) wherein R 1 is a C 1 -C 5 alkyl group.
A method performed by a first software defined wide area network, SD-WAN, edge router communicably coupled to a public network , the method comprising: receiving a transport location, TLOC,-extension configuration for a known interface of the first edge router ; detecting a second edge router attempting to connect to the known interface of the first edge router ; and transmitting, to the second edge router , configuration information for the second edge router , wherein the configuration information comprises TLOC-extension information for establishing a TLOC-extension between the first edge router and the second edge router , so that the second edge router is able to communicate with the public network through the TLOC-extension with the first edge router to access device configuration information from the public network through the TLOC-extension for onboarding the second edge router . receiving a transport location, TLOC,-extension configuration for a known interface of the first edge router ; detecting a second edge router attempting to connect to the known interface of the first edge router ; and transmitting, to the second edge router , configuration information for the second edge router , wherein the configuration information comprises TLOC-extension information for establishing a TLOC-extension between the first edge router and the second edge router , so that the second edge router is able to communicate with the public network through the TLOC-extension with the first edge router to access device configuration information from the public network through the TLOC-extension for onboarding the second edge router .
Sliding bearing for guiding a translationally moveable sliding part, having a first part with a first guidance surface suitable for interacting with a first sliding surface , and having a second part with a second guidance surface suitable for interacting with the second sliding surface , wherein the second part is designed moveably relative to the first part , and is pressed in the direction of the first guidance surface by a pressure device in such a way that the first guidance surface can be moved into contact with the first sliding surface and the second guidance surface can be moved into contact with the second sliding surface , characterised in that a guidance part is moveably connected to the first part , wherein the pressure device is arranged such that bearing surfaces of the guidance part and bearing surfaces of the first part can be loaded against wall regions of a bearing seat.
A method of a network node for enabling determining of an overall Quality of Service, QoS, of at least one Internet of Things, IoT, device , comprising: transmitting (S101), to a device connectivity middleware, DCM, node , an identifier of said at least one loT device for which a QoS measure is to be acquired; receiving (S102), from the DCM node , a network profile of the loT device associated with said identifier; transmitting (S103), to a Service Capability Exposure Function , SCEF, a request for the QoS measure of the loT device for the received network profile, the SCEF acquiring the QoS measure from a Policy and Charging Control, PCC, function ; receiving (S 106), from the SCEF, the requested QoS measure of the loT device ; transmitting (S107), to a Lightweight Machine-to-Machine, LWM2M, device , a request for availability information for said at least one IoT device ; receiving (S108), from the LWM2M device , the requested availability information; and determining (S109) the overall QoS for said at least one IoT device based on the received QoS measure and the received availability information. transmitting (S101), to a device connectivity middleware, DCM, node , an identifier of said at least one loT device for which a QoS measure is to be acquired; receiving (S102), from the DCM node , a network profile of the loT device associated with said identifier; transmitting (S103), to a Service Capability Exposure Function , SCEF, a request for the QoS measure of the loT device for the received network profile, the SCEF acquiring the QoS measure from a Policy and Charging Control, PCC, function ; receiving (S 106), from the SCEF, the requested QoS measure of the loT device ; transmitting (S107), to a Lightweight Machine-to-Machine, LWM2M, device , a request for availability information for said at least one IoT device ; receiving (S108), from the LWM2M device , the requested availability information; and determining (S109) the overall QoS for said at least one IoT device based on the received QoS measure and the received availability information.
Method for communicating between digital communication devices which are connected by a communication network , wherein the communication network provides access to stored data items, the method being carried out by said digital communication devices and comprising controlling a display of a source communication device to present icons within a graphical user interface, wherein the icons are related with data items, characterized in that the method comprises the steps of: - receiving a selection of one icon being related to a data item received from a sender, the data item being one of the stored data items; - controlling the display to open a new window containing contact information of the sender of the data item being related to the selected icon; - offering a selection of communication channels within a menu which is displayed in the new window ; - providing an option to respond to the data item through a different communication channel than the one via the data item has been received from the sender; and wherein the method further comprises the steps of: - displaying the icon (504-507) related to the data item as a function of a data type of the data item by providing a different icon for each different data type, whereby communication items are shown in a perspective graphical presentation such that more recent communication items are shown in the foreground, while older communication items are presented in a reduced size and shifted to the background such that a perspective impression is created for the user, whereby if the user clicks on to one of the communication items , the corresponding icon is brought to the foreground of the presentation and at the same time is displayed in a larger size. - receiving a selection of one icon being related to a data item received from a sender, the data item being one of the stored data items; - controlling the display to open a new window containing contact information of the sender of the data item being related to the selected icon; - offering a selection of communication channels within a menu which is displayed in the new window ; - providing an option to respond to the data item through a different communication channel than the one via the data item has been received from the sender; and - displaying the icon (504-507) related to the data item as a function of a data type of the data item by providing a different icon for each different data type,
A method of preparing a stabilized micro-dispersion comprising a. solubilizing a sorbate or benzoate in water to form a sorbate or benzoate solution, wherein the temperature of the water is 20 to 100 °C; b. combining a stabilizer with water to form a stabilizer solution, wherein the stabilizer is a biopolymer or a modified polysaccharide; c. combining the sorbate or benzoate solution and stabilizer solution and mixing to form a sorbic acid or benzoic acid micro-dispersion comprising 0.1 to 25 wt% stabilizer and 1 to 30 wt% sorbic acid or benzoic acid, each based on total weight of the micro-dispersion; and d. adjusting the pH of the micro-dispersion to 2.5 to 4, wherein the viscosity of the micro-dispersion is no greater than 1000 mPa·s (1000 cPs) at 25 °C. a. solubilizing a sorbate or benzoate in water to form a sorbate or benzoate solution, wherein the temperature of the water is 20 to 100 °C; b. combining a stabilizer with water to form a stabilizer solution, wherein the stabilizer is a biopolymer or a modified polysaccharide; c. combining the sorbate or benzoate solution and stabilizer solution and mixing to form a sorbic acid or benzoic acid micro-dispersion comprising 0.1 to 25 wt% stabilizer and 1 to 30 wt% sorbic acid or benzoic acid, each based on total weight of the micro-dispersion; and d. adjusting the pH of the micro-dispersion to 2.5 to 4, wherein the viscosity of the micro-dispersion is no greater than 1000 mPa·s (1000 cPs) at 25 °C.
A barrier coating composition comprising - 30 - 70 weight-% of styrene (meth)acrylate copolymer, which is polymerised in the presence of a stabiliser, and which has a weight average molecular weight < 100 000 g/mol and a glass transition temperature Tg ≤ 20 °C, preferably ≤ 10 °C, - 30 - 70 weight-% of polyvinyl alcohol, which has a molecular weight of ≤ 50 000 g/mol, wherein the ratio of styrene (meth)acrylate copolymer to polyvinyl alcohol is from 1:2 to 2:1, and - at the most 5.0 weight-% of a cross-linker, which reacts with -OH or -COOH groups. - 30 - 70 weight-% of styrene (meth)acrylate copolymer, which is polymerised in the presence of a stabiliser, and which has a weight average molecular weight < 100 000 g/mol and a glass transition temperature Tg ≤ 20 °C, preferably ≤ 10 °C, - 30 - 70 weight-% of polyvinyl alcohol, which has a molecular weight of ≤ 50 000 g/mol, wherein the ratio of styrene (meth)acrylate copolymer to polyvinyl alcohol is from 1:2 to 2:1, and - at the most 5.0 weight-% of a cross-linker, which reacts with -OH or -COOH groups.
A compound represented by formula (I), a pharmaceutical acceptable salt thereof or a tautomer thereof: T 1 , T 2 are independently selected from: NH and CH 2 ; R 1 , R 3 are independently selected from H, F, Cl, Br, I, OH, NH 2 , or C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by R, and the number of R is 1, 2 or 3; R 2 is selected from H, F, Cl, Br, I, OH or NH 2 ; R 4 is selected from C 1-3 alkyl which is optionally substituted by 1, 2 or 3 R; alternatively, R 3 and R 4 are linked together to form a 3- to 6-membered ring which is optionally substituted by 1, 2 or 3 R; each of R is selected from: F, Cl, Br, I, OH and NH 2 . T 1 , T 2 are independently selected from: NH and CH 2 ; R 1 , R 3 are independently selected from H, F, Cl, Br, I, OH, NH 2 , or C 1-3 alkyl, wherein the C 1-3 alkyl is optionally substituted by R, and the number of R is 1, 2 or 3; R 2 is selected from H, F, Cl, Br, I, OH or NH 2 ; R 4 is selected from C 1-3 alkyl which is optionally substituted by 1, 2 or 3 R; alternatively, R 3 and R 4 are linked together to form a 3- to 6-membered ring which is optionally substituted by 1, 2 or 3 R; each of R is selected from: F, Cl, Br, I, OH and NH 2 .
An additive manufacturing system, comprising: a nozzle having an inlet for receiving a flowable material and an outlet for depositing the flowable material; an applicator head surrounding at least a portion of a proximal region of the nozzle , wherein the applicator head comprises: a housing ; a cooling inlet for receiving a coolant into the housing ; a cooling outlet configured to allow the coolant to exit the housing ; and a roller mounted on the applicator head to one side of the outlet of the nozzle , characterized in that the applicator head comprises an air inlet and the roller comprises: an air outlet , wherein a flow path connects the air inlet and the air outlet so that air enters the air inlet and exits the air outlet ; and a plurality of holes located on an external surface of the roller . a nozzle having an inlet for receiving a flowable material and an outlet for depositing the flowable material; an applicator head surrounding at least a portion of a proximal region of the nozzle , wherein the applicator head comprises: a housing ; a cooling inlet for receiving a coolant into the housing ; a cooling outlet configured to allow the coolant to exit the housing ; and a roller mounted on the applicator head to one side of the outlet of the nozzle , characterized in that the applicator head comprises an air inlet and the roller comprises: an air outlet , wherein a flow path connects the air inlet and the air outlet so that air enters the air inlet and exits the air outlet ; and a plurality of holes located on an external surface of the roller . a housing ; a cooling inlet for receiving a coolant into the housing ; a cooling outlet configured to allow the coolant to exit the housing ; and a roller mounted on the applicator head to one side of the outlet of the nozzle , characterized in that the applicator head comprises an air inlet and the roller comprises: an air outlet , wherein a flow path connects the air inlet and the air outlet so that air enters the air inlet and exits the air outlet ; and a plurality of holes located on an external surface of the roller . an air outlet , wherein a flow path connects the air inlet and the air outlet so that air enters the air inlet and exits the air outlet ; and a plurality of holes located on an external surface of the roller .
A method for providing application content for an application comprising receiving, at a first user experience player of a first platform of a first platform type, initial declarative content from a declarative content engine; processing, by a computer processor executing the first user experience player, the initial declarative content to obtain the application content; binding, by the first user experience player, the application content to first platform-specific templates and first platform-specific navigation patterns for the first platform type; displaying the application content in a first platform-specific user display format; receiving a user action of a user executing the application in response to displaying the application content; transmitting the user action to the declarative content engine; and determining a decision by the user to continue executing the application on a second platform of a second platform type corresponding to a second user experience player, wherein the second user experience player receives, in response to the transmission of and based on the user action, next declarative content from the declarative content engine; wherein the user action is received via a first context of interacting with the application, the method further comprising:determining that the user has switched to a second context of interacting with the application; and transmitting to the declarative content engine, an indication that the user has switched to the second context; wherein the first context is a visual context and the second context is an audio context.
A pyrolysis apparatus comprising: a. a pyrolysis chamber having a first end and a second end and comprising a centreless pyrolysis screw conveyor extending from the first end at least partially towards the second end of the pyrolysis chamber and configured to form a biomass bed; b. a feed inlet adjacent the first end of the pyrolysis chamber; c. a biochar outlet adjacent the second end of the pyrolysis chamber; d. a gas outlet in fluid communication with the pyrolysis chamber and located adjacent the first end; and e. at least one gas injection port located adjacent the second end, wherein the feed inlet comprises a centreless feed screw conveyor and a spacing between an end of the centreless feed screw conveyor and the pyrolysis chamber, wherein the second end of the pyrolysis chamber is free of gas outlets, and wherein the centreless feed screw conveyor is configured to form a biomass plug in the spacing between the end of the centreless feed screw conveyor and the pyrolysis chamber. a. a pyrolysis chamber having a first end and a second end and comprising a centreless pyrolysis screw conveyor extending from the first end at least partially towards the second end of the pyrolysis chamber and configured to form a biomass bed; b. a feed inlet adjacent the first end of the pyrolysis chamber; c. a biochar outlet adjacent the second end of the pyrolysis chamber; d. a gas outlet in fluid communication with the pyrolysis chamber and located adjacent the first end; and e. at least one gas injection port located adjacent the second end,
Optoelectronic device for generation of a frequency comb, comprising: ∘ a laser source designed to emit an optical signal, referred to as pump signal, that is continuous and monochromatic with a wavelength referred to as pump wavelength; ∘ an optical ring micro-resonator , comprising: ▪ a first waveguide , comprising an input optically coupled to the laser source , and an output intended to supply the frequency comb generated; ▪ a second ring multimode waveguide , referred to as resonant ring, optically coupled to the first waveguide for generating an optical mode called fundamental mode in the resonant ring , the resonant ring being formed from a material, referred to as core material, optically non-linear of order three whose index of refraction depends on the intensity of an optical signal passing through it and which has transverse dimensions such that it exhibits an abnormal dispersion regime associated with the said fundamental optical mode; characterized in that it comprises: ∘ at least a third waveguide , referred to as filtering guide, optically coupled to the resonant ring , having an effective index associated with a fundamental optical mode supported by the filtering guide equal to an effective index associated with an optical higher order mode supported by the resonant ring . ∘ a laser source designed to emit an optical signal, referred to as pump signal, that is continuous and monochromatic with a wavelength referred to as pump wavelength; ∘ an optical ring micro-resonator , comprising: ▪ a first waveguide , comprising an input optically coupled to the laser source , and an output intended to supply the frequency comb generated; ▪ a second ring multimode waveguide , referred to as resonant ring, optically coupled to the first waveguide for generating an optical mode called fundamental mode in the resonant ring , the resonant ring being formed from a material, referred to as core material, optically non-linear of order three whose index of refraction depends on the intensity of an optical signal passing through it and which has transverse dimensions such that it exhibits an abnormal dispersion regime associated with the said fundamental optical mode; ▪ a first waveguide , comprising an input optically coupled to the laser source , and an output intended to supply the frequency comb generated; ▪ a second ring multimode waveguide , referred to as resonant ring, optically coupled to the first waveguide for generating an optical mode called fundamental mode in the resonant ring , the resonant ring being formed from a material, referred to as core material, optically non-linear of order three whose index of refraction depends on the intensity of an optical signal passing through it and which has transverse dimensions such that it exhibits an abnormal dispersion regime associated with the said fundamental optical mode;
Floor panel, wherein this floor panel is made rectangular and oblong and comprises a substrate and a top layer provided on this substrate and forming a decorative side of the floor panel , wherein the top layer is at least composed of a print provided on a carrier sheet and a transparent thermoplastic layer situated above said print , wherein said substrate has a thickness from 2 to 10 millimeter and forms at least half of the thickness of the floor panel, characterized in that said substrate is a polyurethane-based substrate and said transparent thermoplastic layer is polyurethane-based, wherein the floor panel has a length (L) of more than 1.1 meters and further comprises a plurality of reinforcing glass fiber layers situated outside the center line of said substrate and embedded in said substrate , and wherein at least one reinforcing glass fiber layer is at each side of said center line.
A computer-implemented method for image reconstruction for medical imaging of a subject, the method comprising: - obtaining a lookup table of pre-computed sets of data , each pre-computed set of data comprises a model-image m * from a sample M * and a corresponding data-image d * , the model-image m * is a realization from a prior ρ ( m ) , the prior ρ ( m ) is a statistical model based on expert data, each model-image m * is a representation of an image of one, or more, pixels, the data-image d * is determined based on the model-image m * in the same set of data , each data-image d * is a representation of one, or more, pixels, - obtaining a PET image and dividing the PET image into subset-images d ss each subset-image d ss is a representation of one, or more, pixels, - using for each subset-image d ss from the PET image an extended rejection sampler to accept model-images m * from the lookup table representing the posterior distribution given the subset-image d ss , and - determining and outputting a representation image based on the sample of the posterior distribution . - obtaining a lookup table of pre-computed sets of data , each pre-computed set of data comprises a model-image m * from a sample M * and a corresponding data-image d * , the model-image m * is a realization from a prior ρ ( m ) , the prior ρ ( m ) is a statistical model based on expert data, each model-image m * is a representation of an image of one, or more, pixels, the data-image d * is determined based on the model-image m * in the same set of data , each data-image d * is a representation of one, or more, pixels, - obtaining a PET image and dividing the PET image into subset-images d ss each subset-image d ss is a representation of one, or more, pixels, - using for each subset-image d ss from the PET image an extended rejection sampler to accept model-images m * from the lookup table representing the posterior distribution given the subset-image d ss , and - determining and outputting a representation image based on the sample of the posterior distribution .
A sterilized injectable hyaluronic acid composition comprising - a crosslinked hyaluronic acid gel, - lidocaine, and - an ascorbyl glycoside in an amount which prevents or reduces the effect on the viscosity and/or elastic modulus G' of the composition caused by the lidocaine upon sterilization by heat; wherein the concentration of said ascorbyl glycoside is in the range of 0.01 to 5 mg/ml. - a crosslinked hyaluronic acid gel, - lidocaine, and - an ascorbyl glycoside in an amount which prevents or reduces the effect on the viscosity and/or elastic modulus G' of the composition caused by the lidocaine upon sterilization by heat;