mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating an electrical conductor having an insulating coating, the method including the steps of: providing an electrical conductor; coating the electrical conductor with at least one layer of a flexible insulating precursor material, the precursor material comprising: a first organo-alkoxide 1 R x Si(O 1 R') 4-x and a second organo-alkoxide 2 R x Si(O 2 R') 4-x, and an inorganic filler material where 1 R is a non-hydrolysable organic moiety thermally stable to a temperature of at least 150°C, 2 R is a non-hydrolysable organic moiety containing a functional group that can react with another like functional group to form an organic polymer, 1 R' and 2 R' are alkyl radicals and x is 1 or 2. providing an electrical conductor; coating the electrical conductor with at least one layer of a flexible insulating precursor material, the precursor material comprising: a first organo-alkoxide 1 R x Si(O 1 R') 4-x and a second organo-alkoxide 2 R x Si(O 2 R') 4-x, and an inorganic filler material where 1 R is a non-hydrolysable organic moiety thermally stable to a temperature of at least 150°C, 2 R is a non-hydrolysable organic moiety containing a functional group that can react with another like functional group to form an organic polymer, 1 R' and 2 R' are alkyl radicals and x is 1 or 2. a first organo-alkoxide 1 R x Si(O 1 R') 4-x and a second organo-alkoxide 2 R x Si(O 2 R') 4-x, and an inorganic filler material where 1 R is a non-hydrolysable organic moiety thermally stable to a temperature of at least 150°C, 2 R is a non-hydrolysable organic moiety containing a functional group that can react with another like functional group to form an organic polymer, 1 R' and 2 R' are alkyl radicals and x is 1 or 2.
A method performed by a Machine-to-Machine, M2M, type Communication, MTC, device for communicating MTC data in a MTC network environment, comprising: receiving a notification message including a timer value from an MTC network; entering, upon receiving the notification message including the timer value for a duration equal to the timer value, an inactive mode; entering, upon an expiration of the timer value, an active mode from the inactive mode; determining a size of MTC data that the MTC device is allowed to transmit during the active period of the MTC device by querying the MTC network via a camped network cell; and transmitting MTC data to an MTC server associated with the MTC device via the MTC network during the active mode of the MTC device based on the determination. receiving a notification message including a timer value from an MTC network; entering, upon receiving the notification message including the timer value for a duration equal to the timer value, an inactive mode; entering, upon an expiration of the timer value, an active mode from the inactive mode; determining a size of MTC data that the MTC device is allowed to transmit during the active period of the MTC device by querying the MTC network via a camped network cell; and transmitting MTC data to an MTC server associated with the MTC device via the MTC network during the active mode of the MTC device based on the determination.
Anchoring element for fastening a climbing formwork to a concrete body, comprising a locking anchor and a coupling element, wherein the locking anchor has a head and a threaded rod with an external thread, wherein the coupling element is a body, in particular an elongated body, with a base, and with a casing and preferably a front, and wherein the coupling element has an anchor bore extending axially inwards from the base, which anchor bore has an internal thread which meshes with the external thread of the threaded rod, wherein an opening, in particular a viewing opening, is provided at the inner end of the anchor bore so that the end face of the threaded rod accommodated in the anchor bore is visible from the outside, wherein a sleeve is provided which is arranged around the coupling element and follows the outer contour of the base and the casing of the coupling element, wherein a bottom of the sleeve facing the locking anchor has a circular opening which is aligned with the anchor bore of the coupling element, characterized in that the end face of the threaded rod has a marking, and in that the opening has a smaller radius than the opening of the anchor bore in the base of the coupling element, so that the bottom of the sleeve projects slightly radially beyond the circumferential edge of the anchor bore. wherein an opening, in particular a viewing opening, is provided at the inner end of the anchor bore so that the end face of the threaded rod accommodated in the anchor bore is visible from the outside, wherein a sleeve is provided which is arranged around the coupling element and follows the outer contour of the base and the casing of the coupling element, wherein a bottom of the sleeve facing the locking anchor has a circular opening which is aligned with the anchor bore of the coupling element, characterized in that the end face of the threaded rod has a marking, and in that the opening has a smaller radius than the opening of the anchor bore in the base of the coupling element, so that the bottom of the sleeve projects slightly radially beyond the circumferential edge of the anchor bore.
A saddle-ride type vehicle, comprising: a frame including a head pipe; a steering shaft being rotatably supported by the head pipe; a front fork being coupled to the steering shaft and including a pair of tubular bodies (111, 112) and a bracket coupling the pair of tubular bodies (111, 112); a front wheel being rotatably supported by the front fork; and a headlight including a light emitting portion and an optical axis adjusting screw for adjusting an optical axis of the light emitting portion, wherein the optical axis adjusting screw includes a head portion disposed on a back-side portion of the headlight, characterised in that the headlight is supported by the front fork and the bracket includes a through hole bored toward the head portion of the optical axis adjusting screw so as to produce a tool path extending to the head portion of the optical axis adjusting screw through the through hole of the bracket. a frame including a head pipe; a steering shaft being rotatably supported by the head pipe; a front fork being coupled to the steering shaft and including a pair of tubular bodies (111, 112) and a bracket coupling the pair of tubular bodies (111, 112); a front wheel being rotatably supported by the front fork; and a headlight including a light emitting portion and an optical axis adjusting screw for adjusting an optical axis of the light emitting portion, wherein the optical axis adjusting screw includes a head portion disposed on a back-side portion of the headlight, characterised in that the headlight is supported by the front fork and the bracket includes a through hole bored toward the head portion of the optical axis adjusting screw so as to produce a tool path extending to the head portion of the optical axis adjusting screw through the through hole of the bracket.
An antigenic composition for oral administration comprising a lipid formulation and at least one antigenic component comprising an antigenically effective amount of live organisms; wherein the lipid formulation is in paste or solid form and is solid at a temperature of 10°C or above, wherein the lipid formulation undergoes solid to fluid transition between about 30°C to 37°C and contains: (a) 40% to 100%, preferably 60% to 100%, preferably 80% to 100%, and more preferably 90% to 100% C 16 and/or C 18 fatty acids; or (b) contains 10% to 40%, preferably 20% to 35%, and more preferably 25% to 32% C 16 fatty acids; and 40% to 90%, preferably 50% to 80%, and more preferably 60% to 70% C 18 fatty acids; or (c) contains less than 35%, preferably less than 25%, and more preferably less than 10% C 14 fatty acids or shorter; or (d) contains less than 5% C 14 fatty acids or shorter, 25% to 32% C 16 fatty acids; and 60% to 70% C 18 fatty acids. (a) 40% to 100%, preferably 60% to 100%, preferably 80% to 100%, and more preferably 90% to 100% C 16 and/or C 18 fatty acids; or (b) contains 10% to 40%, preferably 20% to 35%, and more preferably 25% to 32% C 16 fatty acids; and 40% to 90%, preferably 50% to 80%, and more preferably 60% to 70% C 18 fatty acids; or (c) contains less than 35%, preferably less than 25%, and more preferably less than 10% C 14 fatty acids or shorter; or (d) contains less than 5% C 14 fatty acids or shorter, 25% to 32% C 16 fatty acids; and 60% to 70% C 18 fatty acids.
A method for hard-surfacing metal parts for an aircraft turbofan, said method involving a nozzle emitting a laser beam or an electron beam, which is to heat a sprayed powder for hard-surfacing said metal part, said method comprising the various following steps: - positioning the metal part to be hard-surfaced in an enclosure having a top portion with an opening; - positioning a mobile cover covering the opening of the top portion, said mobile cover having an opening; - positioning the nozzle at the opening of the mobile cover; - feeding an inert gas into the enclosure; - spraying metal powders and emitting the laser beam for hard-surfacing the metal part; characterised in that said method comprises the following step: - moving the nozzle relative to the enclosure, along a path for hard-surfacing the metal part, the movement of the nozzle causing the movement of the mobile cover on the top surface of the enclosure. - positioning the metal part to be hard-surfaced in an enclosure having a top portion with an opening; - positioning a mobile cover covering the opening of the top portion, said mobile cover having an opening; - positioning the nozzle at the opening of the mobile cover; - feeding an inert gas into the enclosure; - spraying metal powders and emitting the laser beam for hard-surfacing the metal part; characterised in that said method comprises the following step: - moving the nozzle relative to the enclosure, along a path for hard-surfacing the metal part, the movement of the nozzle causing the movement of the mobile cover on the top surface of the enclosure. - moving the nozzle relative to the enclosure, along a path for hard-surfacing the metal part, the movement of the nozzle causing the movement of the mobile cover on the top surface of the enclosure.
Dental prosthesis, at least one layer of a film being integrated into the dental prosthesis, the prosthesis being built up layer-wise and at least one part of the prosthesis comprising at least one inside layer of a film, the dental prosthesis being a tooth having at least one integrated film, the tooth comprising at least three portions (i) inner tooth portion, the inner tooth portion comprising at least one polymer of an (alkyl) acrylate, and/or of a copolymer based on (meth)acrylates and cross-linkers, (ii) film layer, and (iii) at least one further tooth layer, the film layer being attached, at least in part, between the inner tooth portion and the at least one further tooth layer, the at least one further tooth layer comprising at least one polymer of an (alkyl) acrylate, of a copolymer, veneering composite and/or dental veneering ceramic, such as zinc oxide, characterised in that the film layer comprises a tough-elastic and thermoplastic film. (i) inner tooth portion, the inner tooth portion comprising at least one polymer of an (alkyl) acrylate, and/or of a copolymer based on (meth)acrylates and cross-linkers, (ii) film layer, and (iii) at least one further tooth layer, the film layer being attached, at least in part, between the inner tooth portion and the at least one further tooth layer, the at least one further tooth layer comprising at least one polymer of an (alkyl) acrylate, of a copolymer, veneering composite and/or dental veneering ceramic, such as zinc oxide, characterised in that the film layer comprises a tough-elastic and thermoplastic film.
A compound represented by the following Formula 1-a: [Formula 1-a] {[(A-R 1 O) a Si (OR 4) 3-a]-(R 2)} c Si(OR 3 -B) 4-c wherein R 1 and R 3 may be the same as or different from each other, and are each independently a linear or branched alkylene group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; R 2 is an alkylene group which the number of carbon atoms is 1 to 20, or a linear or branched alkylene group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; R 4 s may be the same as or different from each other, and are each independently a linear or branched alkyl group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; A and B may be the same as or different from each other, and are each independently an acrylate-based or methacrylate-based functional group; a is an integer in the range of 1 to 3, and c is an integer in the range of 1 to 3. R 1 and R 3 may be the same as or different from each other, and are each independently a linear or branched alkylene group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; R 2 is an alkylene group which the number of carbon atoms is 1 to 20, or a linear or branched alkylene group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; R 4 s may be the same as or different from each other, and are each independently a linear or branched alkyl group in which fluorine is substituted and the number of carbon atoms is 1 to 20, and the number of substituted fluorine is 1 to 36; A and B may be the same as or different from each other, and are each independently an acrylate-based or methacrylate-based functional group; a is an integer in the range of 1 to 3, and c is an integer in the range of 1 to 3.
A pneumatic tire comprising a tread part, wherein by providing, in the tread part, a shoulder main groove that continuously extends in a tire circumferential direction on a tread edge (Te) side and a center main groove that continuously extends in the tire circumferential direction on a tire axial direction inner side of the shoulder main groove, the tread part is divided into a shoulder land portion on a tire axial direction outer side of the shoulder main groove and a middle land portion between the shoulder main groove and the center main groove, a shoulder narrow groove that continuously extends in the tire circumferential direction with a groove width smaller than that of the shoulder main groove is provided in the shoulder land portion on the shoulder main groove side, a ratio (W1/W2) of a tire axial direction width of the shoulder land portion to a tire axial direction width of the middle land portion is 1.6 - 2.4, characterised in that a first camber amount, which is a tire radial direction distance between a tire equator position (a) and the tread edge (Te) in a tread profile in a tire cross section that includes a tire rotation axis in a no-load normal state in which the pneumatic tire is mounted to a normal rim and is filled with air at a normal internal pressure, is 5.3% - 6.5% of a tread ground contact width, wherein the tread edge (Te) refers to the ground contact position of the tire axial direction outermost side when the tire in the no-load normal state is loaded with a normal load and is grounded on a flat surface at a camber angle of 0 degree.
A method for determining a set point for a thermal sensor in an apparatus for the layer-by-layer manufacture of a three-dimensional object from particulate material; the method comprising: (a) distributing a layer of particulate material, the layer providing a build bed surface; (b) depositing an amount of absorption modifier over at least one of a test region and a surrounding area surrounding the test region; (c) heating the test region over a period of time with a heat source; (d) measuring with the thermal sensor a temperature value TR within the test region; (e) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface; - repeating the steps (b) to (e) of the layer cycle at least until the particulate material within the test region starts to melt, wherein step (b) comprises depositing a further amount of absorption modifier over the test region, wherein the further amount of absorption modifier causes the particulate material of the test region to absorb more energy from the heat source than the test region of the preceding layer; - determining a set point for the thermal sensor from a characteristic of the material as identified from a characteristic in the evolution of the measured temperature value TR within the test region; and - applying the determined set point to subsequent measurements of the thermal sensor. (a) distributing a layer of particulate material, the layer providing a build bed surface; (b) depositing an amount of absorption modifier over at least one of a test region and a surrounding area surrounding the test region; (c) heating the test region over a period of time with a heat source; (d) measuring with the thermal sensor a temperature value TR within the test region; (e) distributing a further layer of material over the preceding layer of material, the new layer providing the build bed surface; - repeating the steps (b) to (e) of the layer cycle at least until the particulate material within the test region starts to melt, wherein step (b) comprises depositing a further amount of absorption modifier over the test region, wherein the further amount of absorption modifier causes the particulate material of the test region to absorb more energy from the heat source than the test region of the preceding layer; - determining a set point for the thermal sensor from a characteristic of the material as identified from a characteristic in the evolution of the measured temperature value TR within the test region; and - applying the determined set point to subsequent measurements of the thermal sensor.
A computer-implemented method for segmenting a three-dimensional image, the method comprising: receiving the three-dimensional image acquired by an imaging device; determining, by a processor, a label map for at least two anatomical planes of the three-dimensional image; and fusing, by the processor, each of the determined label maps for the at least two anatomical planes of the three-dimensional image to determine a fused label map for the three-dimensional image; wherein determining the label map for an anatomical plane of the three-dimensional image comprises: selecting a plurality of stacks of adjacent two-dimensional images from the plane of the three-dimensional image; segmenting, by the processor, each stack of adjacent two-dimensional images from the plane using a convolutional neural network model, wherein segmenting each stack comprises determining a label map for at least one two-dimensional middle image in each stack; and determining, by the processor, a label map for the plane of the three-dimensional image by aggregating the segmentation results from the plurality of stacks. receiving the three-dimensional image acquired by an imaging device; determining, by a processor, a label map for at least two anatomical planes of the three-dimensional image; and fusing, by the processor, each of the determined label maps for the at least two anatomical planes of the three-dimensional image to determine a fused label map for the three-dimensional image; wherein determining the label map for an anatomical plane of the three-dimensional image comprises: selecting a plurality of stacks of adjacent two-dimensional images from the plane of the three-dimensional image; segmenting, by the processor, each stack of adjacent two-dimensional images from the plane using a convolutional neural network model, wherein segmenting each stack comprises determining a label map for at least one two-dimensional middle image in each stack; and determining, by the processor, a label map for the plane of the three-dimensional image by aggregating the segmentation results from the plurality of stacks. selecting a plurality of stacks of adjacent two-dimensional images from the plane of the three-dimensional image; segmenting, by the processor, each stack of adjacent two-dimensional images from the plane using a convolutional neural network model, wherein segmenting each stack comprises determining a label map for at least one two-dimensional middle image in each stack; and determining, by the processor, a label map for the plane of the three-dimensional image by aggregating the segmentation results from the plurality of stacks.
An electric lock provided on the inner side with a first handle and with a knob, and on the outer side with a second handle and with an assembly for reading a codified key, interposed between said second handle and a said spring latch means of mutual decoupling being provided, a main body provided with a seat for the rotatable accommodation of a transverse shank of said knob, said decoupling means comprising a contoured disk, an idle toothed wheel, said contoured disk comprising a toothing that is distributed over a predefined angle and is removably coupled with respective recesses in said toothed wheel, the electric lock being characterized in that said contoured disk is integral with said knob, said toothed wheel being provided with a lower profiled plate that constitutes a cam, and the lock further comprising a switch facing an edge of said plate, the rotation of said knob determining the rotation of said disk, with consequent entrainment of said toothed wheel, limited to the predefined angle of said toothing, and orientation of said plate corresponding to its interference with a button of said switch, wherein said switch disables said reading assembly.
A biogas plant for the production of biogas, comprising: at least one fermenter for an anaerobic bacterial fermentation of biomass and (a) a device for the mechanical breakdown of straw, comprising an apparatus for the mechanical comminution of straw by grinding, preferably grinding by means of a hammer mill, and (b) a device for the thermal decomposition of straw (82, 104, 122, 130) by saturated steam treatment or by thermal pressure hydrolysis. at least one fermenter for an anaerobic bacterial fermentation of biomass and (a) a device for the mechanical breakdown of straw, comprising an apparatus for the mechanical comminution of straw by grinding, preferably grinding by means of a hammer mill, and (b) a device for the thermal decomposition of straw (82, 104, 122, 130) by saturated steam treatment or by thermal pressure hydrolysis. (a) a device for the mechanical breakdown of straw, comprising an apparatus for the mechanical comminution of straw by grinding, preferably grinding by means of a hammer mill, and (b) a device for the thermal decomposition of straw (82, 104, 122, 130) by saturated steam treatment or by thermal pressure hydrolysis.