mhurhangee/ep-ind-claims huggingface dataset:
A biaxially oriented film comprising a polypropylene having a Melt Flow Rate (ISO 1133-230 °C, 2.16 Kg) of from 1 to 5 g/10 min, a stereoblock content (determined by TREF method at a temperature up to 95 °C) of greater than 10 wt%, a flexural modulus (determined according to ISO 178) of greater than 1600 MPa, such polypropylene being obtained by a polymerization process carried out in the presence of a catalyst system comprising the product obtained by contacting the following components: (a) a solid catalyst component comprising a magnesium halide, a titanium compound having at least a Ti-halogen bond and at least two electron donor compounds one of which being present in an amount from 40 to 90% by mol with respect to the total amount of donors and selected from succinates and the other being selected from 1,3 diethers, (b) an aluminum hydrocarbyl compound, and (c) optionally an external electron donor compound. (a) a solid catalyst component comprising a magnesium halide, a titanium compound having at least a Ti-halogen bond and at least two electron donor compounds one of which being present in an amount from 40 to 90% by mol with respect to the total amount of donors and selected from succinates and the other being selected from 1,3 diethers, (b) an aluminum hydrocarbyl compound, and (c) optionally an external electron donor compound.
A method of producing an extended content adhesive assembly having at least one region of reduced adhesion, the method comprising: providing a laminated adhesive assembly comprising a transparent face layer defining a front side and an oppositely directed back side, a release liner, and an adhesive layer disposed between the back side of the face layer and the release liner; applying indicia to the front side of the face layer; applying a mask to cover a portion of the adhesive layer; and irradiating the adhesive assembly with radiant energy, wherein the mask substantially blocks a portion of the adhesive layer from exposure to the radiant energy, wherein the radiant energy not blocked by the mask irradiates a region of the adhesive layer to thereby reduce the adhesion of the irradiated region of the adhesive layer, wherein the indicia is visible from the back side of the face layer and through the adhesive layer, thereby defining extended content; the method further comprising applying a floodcoat to the front side of the face layer after irradiation to cover the indicia, wherein the indicia is not visible through the floodcoat; and further comprising applying additional indicia over the floodcoat, wherein the additional indicia is not visible from the back side of the face layer. providing a laminated adhesive assembly comprising a transparent face layer defining a front side and an oppositely directed back side, a release liner, and an adhesive layer disposed between the back side of the face layer and the release liner; applying indicia to the front side of the face layer; applying a mask to cover a portion of the adhesive layer; and irradiating the adhesive assembly with radiant energy, wherein the mask substantially blocks a portion of the adhesive layer from exposure to the radiant energy, wherein the radiant energy not blocked by the mask irradiates a region of the adhesive layer to thereby reduce the adhesion of the irradiated region of the adhesive layer, wherein the indicia is visible from the back side of the face layer and through the adhesive layer, thereby defining extended content; the method further comprising applying a floodcoat to the front side of the face layer after irradiation to cover the indicia, wherein the indicia is not visible through the floodcoat; and further comprising applying additional indicia over the floodcoat, wherein the additional indicia is not visible from the back side of the face layer.
A pivoting module device for optical fibre cable management, comprising: a housing and a pivoting module for receiving optical fibre cables, which is held on the housing so as to be pivotable around a vertical module axis and pivotable into and out of the housing; and a cover plate for covering the pivoting module when the pivoting module is pivoted into the housing, which cover plate can be pivoted open and closed around a cover plate axis at a distance from the module axis and parallel thereto and, in the closed position, covers the pivoting module, characterised in that the pivoting module and cover plate are configured so that they can be locked against each other when at least partially pivoted outwards, such that the cover plate supports the pivoting module in this locked state. a housing and a pivoting module for receiving optical fibre cables, which is held on the housing so as to be pivotable around a vertical module axis and pivotable into and out of the housing; and a cover plate for covering the pivoting module when the pivoting module is pivoted into the housing, which cover plate can be pivoted open and closed around a cover plate axis at a distance from the module axis and parallel thereto and, in the closed position, covers the pivoting module, characterised in that the pivoting module and cover plate are configured so that they can be locked against each other when at least partially pivoted outwards, such that the cover plate supports the pivoting module in this locked state.
An image processing apparatus comprising: acquisition means configured to acquire color image data and a background removal level of the color image data; and processing means configured to, in a case where the background removal level acquired by the acquisition means is less than a predetermined luminance threshold value, generate monochrome image data based on the color image data and then apply background removal processing to the generated monochrome image data according to the acquired background removal level, and configured to, in a case where the background removal level acquired by the acquisition means is equal to or greater than the predetermined luminance threshold value, apply the background removal processing to the color image data according to the acquired background removal level and then generate monochrome image data based on the image data having undergone the background removal processing for the color image data. acquisition means configured to acquire color image data and a background removal level of the color image data; and processing means configured to, in a case where the background removal level acquired by the acquisition means is less than a predetermined luminance threshold value, generate monochrome image data based on the color image data and then apply background removal processing to the generated monochrome image data according to the acquired background removal level, and configured to, in a case where the background removal level acquired by the acquisition means is equal to or greater than the predetermined luminance threshold value, apply the background removal processing to the color image data according to the acquired background removal level and then generate monochrome image data based on the image data having undergone the background removal processing for the color image data.
A method for the production of a film having good barrier properties from a fibrous web, wherein the method comprises the steps of: providing a fibrous suspension comprising a microfibrillated cellulose, wherein the content of the microfibrillated cellulose of said suspension is in the range of 70 to 95 weight-% based on total dry solid content and wherein the microfibrillaetd cellulose has a Schopper Riegler value (SR°) of more than 90 SR°, adding an amphoteric polymer to said suspension to provide a mixture of said microfibrillated cellulose and said amphoteric polymer wherein said amphoteric polymer is amphoteric guar gum, providing said mixture to a substrate to form a fibrous web, wherein the amount of amphoteric polymer in said mixture is in the range of 0.1 to 20 kg/metric ton based on total dry solid content; and dewatering said fibrous web to form a film having a basis weight of less than 40 g/m 2 and a density in the range of from 700 to 1000 kg/m 3 providing a fibrous suspension comprising a microfibrillated cellulose, wherein the content of the microfibrillated cellulose of said suspension is in the range of 70 to 95 weight-% based on total dry solid content and wherein the microfibrillaetd cellulose has a Schopper Riegler value (SR°) of more than 90 SR°, adding an amphoteric polymer to said suspension to provide a mixture of said microfibrillated cellulose and said amphoteric polymer wherein said amphoteric polymer is amphoteric guar gum, providing said mixture to a substrate to form a fibrous web, wherein the amount of amphoteric polymer in said mixture is in the range of 0.1 to 20 kg/metric ton based on total dry solid content; and dewatering said fibrous web to form a film having a basis weight of less than 40 g/m 2 and a density in the range of from 700 to 1000 kg/m 3
Hand-operated power tool, in particular hand-operated power saw or power plane, comprising a tool for machining a workpiece, a drive motor accommodated in a housing for driving the tool and a work table (50b; 50c) located on the housing for placing against the workpiece, wherein a section of the tool projects in front of the work table (50b; 50c) on a side remote from the housing, wherein the work table (50b; 50c) comprises a first work table part (55b; 55c) with a first guide surface and a second work table part (56b; 56c) with a second guide surface for placing against the workpiece, wherein the first and the second work table part (55b, 56b; 55c, 56c) are movably mounted on a work table base (58b; 58c), and wherein the work table (50b; 50c) comprises holding means for fixing the first work table part (55b; 55c) and the second work table part (56b; 56c) in at least two different mutual angular positions of the guide surfaces (53, 54), characterised in that the power tool comprises an adjusting gear mechanism (60b; 60c) for adjusting the mutual angular positions of the work table parts (55b, 56b; 55c, 56c).
A substrate (10, 110) for a superconductive conductor, one face of the substrate (10, 110) having a surface roughness Ra of less than 0.02 μm, wherein a first groove is formed on the one face, wherein a surface roughness Ra of inner wall faces of the first groove and/or a surface roughness Ra of a bottom face of the first groove is 0.02 μm or more.
A method for validation of speech commands from an aircraft pilot, comprising: receiving a speech command from the aircraft pilot with a voice communication device, where the voice communication device is part of a cockpit system, wherein the speech command applies to interactive navigation, INAV, layer selection for a navigation display device; decoding the speech command into a computer readable format; checking the decoded speech command against the present aircraft state as indicated by avionic sensors of the aircraft; checking the decoded speech command against an approved pre-condition that is stored in a pre-condition database; validating the decoded speech command if the decoded speech command is consistent with the present aircraft state; validating the decoded speech command if the decoded speech command is consistent with the approved pre-condition; and updating an input to the cockpit system to execute the speech command from the aircraft pilot if the decoded speech command is validated, wherein, when the interactive navigation, INAV, layer selection relates to a layer selection which is not displayed at a current navigation display device range, the current navigation display device range is reduced such that the layer selection is displayed. receiving a speech command from the aircraft pilot with a voice communication device, where the voice communication device is part of a cockpit system, wherein the speech command applies to interactive navigation, INAV, layer selection for a navigation display device; decoding the speech command into a computer readable format; checking the decoded speech command against the present aircraft state as indicated by avionic sensors of the aircraft; checking the decoded speech command against an approved pre-condition that is stored in a pre-condition database; validating the decoded speech command if the decoded speech command is consistent with the present aircraft state; validating the decoded speech command if the decoded speech command is consistent with the approved pre-condition; and updating an input to the cockpit system to execute the speech command from the aircraft pilot if the decoded speech command is validated, wherein, when the interactive navigation, INAV, layer selection relates to a layer selection which is not displayed at a current navigation display device range, the current navigation display device range is reduced such that the layer selection is displayed.
An apparatus for curing a coating composition disposed on a glass fiber, comprising: a diffuse reflector surrounding a coating composition disposed on a glass fiber, the diffuse reflector defining a cavity having a sidewall extending from a first end to a second end, the first end having a first opening and the second end having a second opening, the glass fiber passing through the cavity from the first opening to the second opening, the sidewall having an interior surface facing the coating composition disposed on the glass fiber, the interior surface comprising a scattering material; and a light source integrated with the diffuse reflector, characterized in that the scattering material comprises partially sintered silica soot, the partially sintered silica soot having a density in the range from 0.8 g/cm 3 - 1.8 g/cm 3 and the light source is configured to direct light to the scattering material, the scattering material configured to diffusely reflect at least 90% of the light, the diffusely reflected light having sufficient intensity to cure the coating composition. a diffuse reflector surrounding a coating composition disposed on a glass fiber, the diffuse reflector defining a cavity having a sidewall extending from a first end to a second end, the first end having a first opening and the second end having a second opening, the glass fiber passing through the cavity from the first opening to the second opening, the sidewall having an interior surface facing the coating composition disposed on the glass fiber, the interior surface comprising a scattering material; and a light source integrated with the diffuse reflector, characterized in that the scattering material comprises partially sintered silica soot, the partially sintered silica soot having a density in the range from 0.8 g/cm 3 - 1.8 g/cm 3 and the light source is configured to direct light to the scattering material, the scattering material configured to diffusely reflect at least 90% of the light, the diffusely reflected light having sufficient intensity to cure the coating composition.
A switch device, comprising: an operation part (10; 1010); a first push mechanism that, by a rotation operation of the operation part, selects and activates a first push switch part; a second push mechanism that, by a tilt operation of the operation part, activates a second push switch part; a circuit board comprising the first push switch part and the second push switch part mounted thereto; and a contact rubber (70; 1070) interposed between the circuit board and the first and second push mechanisms, wherein the contact rubber includes contacts corresponding to the first push switch part and the second push switch part and is configured such that the contacts contact with or separate from the corresponding switch parts by a movement of the first push mechanism and the second push mechanism, and wherein the contact rubber is formed so as to cover an entire upper surface of the circuit board characterized in that: the contacts (61A to 61D) corresponding to the first push mechanism are disposed between the contacts (62A to 62D, 63, 64) corresponding to the second push mechanism in a plane of the circuit board. an operation part (10; 1010); a first push mechanism that, by a rotation operation of the operation part, selects and activates a first push switch part; a second push mechanism that, by a tilt operation of the operation part, activates a second push switch part; a circuit board comprising the first push switch part and the second push switch part mounted thereto; and a contact rubber (70; 1070) interposed between the circuit board and the first and second push mechanisms, wherein the contact rubber includes contacts corresponding to the first push switch part and the second push switch part and is configured such that the contacts contact with or separate from the corresponding switch parts by a movement of the first push mechanism and the second push mechanism, and wherein the contact rubber is formed so as to cover an entire upper surface of the circuit board characterized in that: the contacts (61A to 61D) corresponding to the first push mechanism are disposed between the contacts (62A to 62D, 63, 64) corresponding to the second push mechanism in a plane of the circuit board.
An image processing apparatus, comprising: a reflection characteristic estimation unit that estimates a reflection characteristic of a subject of an image; a highlight area detection unit that detects a highlight area in the image by using a reflection characteristic estimation result estimated by the reflection characteristic estimation unit, wherein the highlight area detection unit performs detection of an area that satisfies a low specular reflection component area, a high luminance area, and a low chroma area as the highlight area, performs an area count, and eliminates a large area part in order to reduce the highlight area; and a material feel control unit comprising: an enhancement process unit that enhances a specular reflection component, which is the reflection characteristic of the subject estimated by the reflection characteristic estimation unit, and the highlight area on a basis of the reflection characteristic estimation result and the highlight area detection result detected by the highlight area detection unit, and a limit process unit that performs a limit process, which calculates a suppression gain of a degree of enhancement of the specular reflection component and the highlight area, with respect to the image in which the specular reflection component and the highlight area are enhanced, the limit process being based on a difference between the image and the image in which the specular reflection component and the highlight area are enhanced; the material feel control unit being operable to control a material feel of the subject in the image by performing the limit process. a reflection characteristic estimation unit that estimates a reflection characteristic of a subject of an image; a highlight area detection unit that detects a highlight area in the image by using a reflection characteristic estimation result estimated by the reflection characteristic estimation unit, wherein the highlight area detection unit performs detection of an area that satisfies a low specular reflection component area, a high luminance area, and a low chroma area as the highlight area, performs an area count, and eliminates a large area part in order to reduce the highlight area; and an enhancement process unit that enhances a specular reflection component, which is the reflection characteristic of the subject estimated by the reflection characteristic estimation unit, and the highlight area on a basis of the reflection characteristic estimation result and the highlight area detection result detected by the highlight area detection unit, and a limit process unit that performs a limit process, which calculates a suppression gain of a degree of enhancement of the specular reflection component and the highlight area, with respect to the image in which the specular reflection component and the highlight area are enhanced, the limit process being based on a difference between the image and the image in which the specular reflection component and the highlight area are enhanced; the material feel control unit being operable to control a material feel of the subject in the image by performing the limit process.
A method of detecting inconsistencies in a composite structure, the method comprising: directing a pulsed laser beam towards the composite structure comprised of a number of composite materials, wherein wide-band ultrasonic signals are formed in the composite structure when radiation of the pulsed laser beam is absorbed by a surface of the composite structure; detecting the wide-band ultrasonic signals over a duration of time to form data, wherein the data comprises an ultrasonic A-scan spectrum; processing the data to identify a structure signal in a frequency domain of the ultrasonic A-scan spectrum; and determining whether the inconsistencies are present in the number of composite materials by comparing the structure signal of the ultrasonic A-scan spectrum to a structure signal of a composite structure standard, wherein determining whether the inconsistencies are present in the number of composite materials comprises: determining whether a first width of the structure signal (272, 305) of the ultrasonic A-scan spectrum in the frequency domain differs from a second width of the structure signal (278, 324) of the composite structure standard in the frequency domain; and determining a wrinkle is present in the number of composite materials if the first width differs from the second width. directing a pulsed laser beam towards the composite structure comprised of a number of composite materials, wherein wide-band ultrasonic signals are formed in the composite structure when radiation of the pulsed laser beam is absorbed by a surface of the composite structure; detecting the wide-band ultrasonic signals over a duration of time to form data, wherein the data comprises an ultrasonic A-scan spectrum; processing the data to identify a structure signal in a frequency domain of the ultrasonic A-scan spectrum; and determining whether the inconsistencies are present in the number of composite materials by comparing the structure signal of the ultrasonic A-scan spectrum to a structure signal of a composite structure standard, wherein determining whether the inconsistencies are present in the number of composite materials comprises: determining whether a first width of the structure signal (272, 305) of the ultrasonic A-scan spectrum in the frequency domain differs from a second width of the structure signal (278, 324) of the composite structure standard in the frequency domain; and determining a wrinkle is present in the number of composite materials if the first width differs from the second width. determining whether a first width of the structure signal (272, 305) of the ultrasonic A-scan spectrum in the frequency domain differs from a second width of the structure signal (278, 324) of the composite structure standard in the frequency domain; and determining a wrinkle is present in the number of composite materials if the first width differs from the second width.