mhurhangee/ep-ind-claims huggingface dataset:
Seat frame (2, 28) of a vehicle seat (1, 27), wherein the seat frame (2, 28) comprises a basic seat structure with a support leg arrangement, a seat face arrangement and a backrest arrangement for the vehicle seat (1, 27), and wherein on the seat frame (2, 28) fitting locations for fitting a multi-point belt system for the vehicle seat (1, 27) are provided, wherein articulation means (20, 33) are provided for articulated adjustment of an expansion structure (19, 29) of an additional seat (21, 32), said expansion structure being provided on the basic seat structure, wherein with the expansion structure (19, 29) on the vehicle seat (1, 27) optionally an additional seating possibility with the additional seat (21, 32) can be configured and disassembled again, wherein the seating direction of the configured additional seat (21, 32) corresponds to the seating direction of the vehicle seat (1, 27), wherein the expansion structure (19, 29) comprises a seat face element (23, 31) which is adjustably received on the basic seat structure, wherein the articulation means (20, 33) are constructed in such a manner that the seat face element (23, 31) of the expansion structure (19, 29) can be pivoted out of a vertically orientated folded-away position into a horizontally orientated position for use and can be pivoted back into the folded-away position again, characterized in that the seat face element (23, 31) can be pivoted about a vertical axis out of a position folded on the seat face arrangement into a position folded away from the seat face arrangement and back again.
A display device, comprising: a rectangular display part that extends in a longitudinal direction and a transverse direction and that includes a display region configured to display image; a light source part including a plurality of LEDs; a lens mounted to cover the light source part and to refract and reflect a light of the light source part; a reflection sheet provided on a rear surface side opposite to the display surface of the display part and configured to reflect the light refracted and reflected by the lens; an optical sheet disposed between the display part and the reflection sheet and parallel to the display part; and a rear frame covering the reflection sheet on the rear surface side, wherein the light source part is disposed in an upper portion of the display device with respect to the transverse direction, wherein a hollow light-guiding region is provided between the reflection sheet and the optical sheet, and wherein the distance between the reflection sheet and the optical sheet in the thickness direction of the display device is less in a lower portion than in the upper portion with respect to the transverse direction, the display device being characterized in that the distance between the reflection sheet and the optical sheet in the thickness direction of the display device is less at both ends of the reflection sheet in the longitudinal direction than in a middle portion of the reflection sheet in the longitudinal direction. a rectangular display part that extends in a longitudinal direction and a transverse direction and that includes a display region configured to display image; a light source part including a plurality of LEDs; a lens mounted to cover the light source part and to refract and reflect a light of the light source part; a reflection sheet provided on a rear surface side opposite to the display surface of the display part and configured to reflect the light refracted and reflected by the lens; an optical sheet disposed between the display part and the reflection sheet and parallel to the display part; and a rear frame covering the reflection sheet on the rear surface side, wherein the light source part is disposed in an upper portion of the display device with respect to the transverse direction, wherein a hollow light-guiding region is provided between the reflection sheet and the optical sheet, and wherein the distance between the reflection sheet and the optical sheet in the thickness direction of the display device is less in a lower portion than in the upper portion with respect to the transverse direction, the display device being characterized in that the distance between the reflection sheet and the optical sheet in the thickness direction of the display device is less at both ends of the reflection sheet in the longitudinal direction than in a middle portion of the reflection sheet in the longitudinal direction.
A method of manufacturing a machine part having a radial crushing strength of 120 MPa or more, when calculating the radial crushing strength based on a method defined in JIS Z 2507, the method of manufacturing a machine part comprising: a compression molding step of compressing raw material powder comprising, as a main component, metal powder that is capable of forming an oxide coating and has a pure iron powder content ratio of 95% or more in mass ratio, to thereby obtain a green compact having a cylindrical shape, in which a cylindrical radial bearing surface for rotatably supporting a shaft in a radial direction is molded on an inner peripheral surface; and a coating forming step of causing the metal powder to react with an oxidizing gas while heating the green compact at a temperature lower than a sintering temperature of the metal powder in the oxidizing gas atmosphere not containing a water vapor, to thereby obtain a reinforced green compact in which the oxide coating is formed between particles of the metal powder, wherein the reinforced green compact obtained through the compression molding step and the coating forming step has the radial bearing surface with a cylindricity defined in JIS B 0021 of 3 μm or less. a compression molding step of compressing raw material powder comprising, as a main component, metal powder that is capable of forming an oxide coating and has a pure iron powder content ratio of 95% or more in mass ratio, to thereby obtain a green compact having a cylindrical shape, in which a cylindrical radial bearing surface for rotatably supporting a shaft in a radial direction is molded on an inner peripheral surface; and a coating forming step of causing the metal powder to react with an oxidizing gas while heating the green compact at a temperature lower than a sintering temperature of the metal powder in the oxidizing gas atmosphere not containing a water vapor, to thereby obtain a reinforced green compact in which the oxide coating is formed between particles of the metal powder, wherein the reinforced green compact obtained through the compression molding step and the coating forming step has the radial bearing surface with a cylindricity defined in JIS B 0021 of 3 μm or less.
A spray nozzle to be applied to a film forming device which sprays a film material, together with a carrier gas, onto a base material so as to form a film on the base material, comprising: - a nozzle main body (1, 2, 3); - a nozzle tip section connected to a tip of the nozzle main body (1, 2, 3); and - at least one path changing section which is provided in a passage of the carrier gas in the nozzle tip section and changes a path of the film material, wherein a cross section of the at least one path changing section which cross section is taken along a direction in which the carrier gas flows is in a shape that allows the path of the film material to be changed so that the film material is delivered onto the base material, characterized in that the at least one path changing section is in a rod-like shape and is provided so as to intersect the passage of the carrier gas, wherein - the cross section of the at least one path changing section which cross section is taken along a direction in which the carrier gas flows is in a shape of a triangle; and - the at least one path changing section is arranged in the passage of the carrier gas such that, when a film material is sprayed onto the base material, one of three sides of the triangle is parallel to a surface of the base material. - a nozzle main body (1, 2, 3); - a nozzle tip section connected to a tip of the nozzle main body (1, 2, 3); and - at least one path changing section which is provided in a passage of the carrier gas in the nozzle tip section and changes a path of the film material, wherein a cross section of the at least one path changing section which cross section is taken along a direction in which the carrier gas flows is in a shape that allows the path of the film material to be changed so that the film material is delivered onto the base material, characterized in that the at least one path changing section is in a rod-like shape and is provided so as to intersect the passage of the carrier gas, wherein - the cross section of the at least one path changing section which cross section is taken along a direction in which the carrier gas flows is in a shape of a triangle; and - the at least one path changing section is arranged in the passage of the carrier gas such that, when a film material is sprayed onto the base material, one of three sides of the triangle is parallel to a surface of the base material. - the cross section of the at least one path changing section which cross section is taken along a direction in which the carrier gas flows is in a shape of a triangle; and - the at least one path changing section is arranged in the passage of the carrier gas such that, when a film material is sprayed onto the base material, one of three sides of the triangle is parallel to a surface of the base material.
A gas turbine engine comprising: an inner compressor exit diffusor; a shaft cover enclosed by the inner compressor exit diffusor; a pre-swirler arranged on the shaft cover, wherein the pre-swirler comprises a pre-swirler insert installed in a hole drilled through the shaft cover, wherein the pre-swirler insert is configured to be replaceable in the drilled hole; and an access port including an access window arranged on the inner compressor exit diffusor, wherein the access port is configured to give access to the pre-swirler insert installed in the shaft cover for replacing the pre-swirler insert through the access window, and wherein the shaft cover is configured to be turned using a clocking tool passing through the access window for accessing a plurality of pre-swirler inserts through the access window. an inner compressor exit diffusor; a shaft cover enclosed by the inner compressor exit diffusor; a pre-swirler arranged on the shaft cover, wherein the pre-swirler comprises a pre-swirler insert installed in a hole drilled through the shaft cover, wherein the pre-swirler insert is configured to be replaceable in the drilled hole; and an access port including an access window arranged on the inner compressor exit diffusor, wherein the access port is configured to give access to the pre-swirler insert installed in the shaft cover for replacing the pre-swirler insert through the access window, and wherein the shaft cover is configured to be turned using a clocking tool passing through the access window for accessing a plurality of pre-swirler inserts through the access window.
An optical measurement device, comprising: a permeable surface for communicating light to and from the optical measurement device; and a hydrophilic coating arranged on the permeable surface characterized in that the coating is a nanotechnical product comprising nanostructured TiO 2 in anatase form. a permeable surface for communicating light to and from the optical measurement device; and a hydrophilic coating arranged on the permeable surface characterized in that the coating is a nanotechnical product comprising nanostructured TiO 2 in anatase form.
A nasal implant delivery system (100, 150, 500) comprising a delivery device comprising a grippable housing (110, 510) with an implant delivery conduit (102, 152, 502) having a piercing end (112, 162) configured to pierce a nasal tissue, characterized by: the conduit (102, 152, 502) comprising an interior orienting portion with a cross-sectional shape configured to orient an implant relative to the conduit (102, 152, 502); and a longitudinal implant comprising a resiliently deformable portion configured to have a contracted first shape and an expanded second shape, wherein the first shape comprises a non-circular cross-section configured to orient the implant relative to the conduit (102, 152, 502) by the conduit orienting portion when the implant is in place in the conduit (102, 152, 502) and the second shape comprises an expanded shape configured to anchor the implant to nasal tissue when the implant is in place in the nasal tissue. the conduit (102, 152, 502) comprising an interior orienting portion with a cross-sectional shape configured to orient an implant relative to the conduit (102, 152, 502); and a longitudinal implant comprising a resiliently deformable portion configured to have a contracted first shape and an expanded second shape, wherein the first shape comprises a non-circular cross-section configured to orient the implant relative to the conduit (102, 152, 502) by the conduit orienting portion when the implant is in place in the conduit (102, 152, 502) and the second shape comprises an expanded shape configured to anchor the implant to nasal tissue when the implant is in place in the nasal tissue.
An acoustic attenuation panel for an aircraft turbojet engine nacelle, including an alveolar central core interposed between an acoustic front skin comprising perforations and a rear skin, the acoustic attenuation panel including a front structure and a rear structure, such that the front structure includes the acoustic front skin and a first network of alveolar walls, the rear structure including the rear skin and a second network of alveolar walls, the front and rear structures each comprising a peripheral border (11, 12), said borders (11, 12) being fastened to each other for the assembly of the front and rear structures, the first and second networks of alveolar walls being complementary so as to form, in an assembled position, the alveolar central core, characterized in that: - the front structure and the rear structure are positioned opposite to each other and so that the network of alveolar walls (9, 10) of a structure (7, 8) is spaced from the skin (3, 6) of the other structure (7, 8) facing it by a clearance d. - the front structure and the rear structure are positioned opposite to each other and so that the network of alveolar walls (9, 10) of a structure (7, 8) is spaced from the skin (3, 6) of the other structure (7, 8) facing it by a clearance d.
An attachment (100, 200, 250) for a handheld appliance, the attachment having a first end for connection to the appliance and a second end, a first wall extending from the first end towards the second end and defining a fluid flow path through the attachment, a second wall (140, 210, 260) extending from the second end towards the first end about the first wall and defining a second fluid flow path extending between the first wall and the second wall wherein a fluid inlet is defined by the first wall and an inner wall extending within and at least partially along the first wall, and the fluid flow path has the fluid inlet at the first end and the fluid inlet is annular.
Method for controlling an electric pad wear readjustment device of a disc brake assembly, in particular for a motor vehicle, and a control device, wherein the disc brake has an application device with a brake feed lever, wherein the pad wear readjustment device is coupled to the brake feed lever and is preferably inserted into a readjustment spindle of the disc brake, characterised by the following method steps: detecting a clearance of the disc brake; identifying a change in the clearance by comparison with preset values; and controlling the electric pad wear readjustment device by energising a solenoid coil of a clutch device of the electric pad wear readjustment device during a movement of the brake feed lever. detecting a clearance of the disc brake; identifying a change in the clearance by comparison with preset values; and controlling the electric pad wear readjustment device by energising a solenoid coil of a clutch device of the electric pad wear readjustment device during a movement of the brake feed lever.
A method comprising: rendering an image based on a neural radiance field, NeRF, volumetric representation of a scene, wherein the NeRF volumetric representation of the scene is based on captured frames of video data, each captured frame including a color image of the scene, a widefield IR image of the scene captured when the scene is illuminated by a source of widefield IR light, and a plurality of depth IR images of the scene, with each of the depth IR images being captured when the scene is illuminated by a different pattern of points of IR light, wherein the illumination by the different patterns of points of IR light occurs at different times, wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to a color and optical density at each position in the scene, the color and optical density at each position in the scene enabling a viewing the scene from a new perspective, and wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to IR values for each of the different patterns of points of IR light from the new perspective; defining a synthesizing function to generate an enhanced image from the image; and computing the synthesizing function using a neural network trained based on a loss function between a predicted image generated by the neural network and a ground truth image captured by a ground truth camera during training. rendering an image based on a neural radiance field, NeRF, volumetric representation of a scene, wherein the NeRF volumetric representation of the scene is based on captured frames of video data, each captured frame including a color image of the scene, a widefield IR image of the scene captured when the scene is illuminated by a source of widefield IR light, and a plurality of depth IR images of the scene, with each of the depth IR images being captured when the scene is illuminated by a different pattern of points of IR light, wherein the illumination by the different patterns of points of IR light occurs at different times, wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to a color and optical density at each position in the scene, the color and optical density at each position in the scene enabling a viewing the scene from a new perspective, and wherein the NeRF volumetric representation provides a mapping between positions and viewing directions to IR values for each of the different patterns of points of IR light from the new perspective; defining a synthesizing function to generate an enhanced image from the image; and computing the synthesizing function using a neural network trained based on a loss function between a predicted image generated by the neural network and a ground truth image captured by a ground truth camera during training.
Converting unit for a flat substrate, comprising: - two upper bearings (14, 16) each intended to support an end of an upper rotary tool, and - two lower bearings (15, 17) each intended to support an end of a lower rotary tool, the flat substrate being intended to be moved longitudinally between the upper rotary tool and the lower rotary tool, the upper bearings (14, 16) and the lower bearings (15, 17) being movable vertically in opposite directions, on either side of the longitudinal movement direction of the flat substrate, - at least one tool-holder column (19, 20) of the converting unit comprising a common drive of an upper bearing (14, 16) and of a lower bearing (15, 17) allowing a simultaneous movement of the upper (14, 16) and lower (15, 17) bearings by a same distance in opposite directions, the at least one common drive comprising a screw device, the upper (14, 16) and lower (15, 17) bearings being mounted on top of one another on the screw device, such that the rotation of the screw device linearly moves the upper (14, 16) and lower (15, 17) bearings in opposite directions, - characterised in that the screw device comprises a first and a second screw (26a, 26b) arranged parallel against one another, on each side of the upper (14, 16) and lower (15, 17) bearings and passing through the upper (14, 16) and lower (15, 17) bearings. - two upper bearings (14, 16) each intended to support an end of an upper rotary tool, and - two lower bearings (15, 17) each intended to support an end of a lower rotary tool, the flat substrate being intended to be moved longitudinally between the upper rotary tool and the lower rotary tool, the upper bearings (14, 16) and the lower bearings (15, 17) being movable vertically in opposite directions, on either side of the longitudinal movement direction of the flat substrate, - at least one tool-holder column (19, 20) of the converting unit comprising a common drive of an upper bearing (14, 16) and of a lower bearing (15, 17) allowing a simultaneous movement of the upper (14, 16) and lower (15, 17) bearings by a same distance in opposite directions, the at least one common drive comprising a screw device, the upper (14, 16) and lower (15, 17) bearings being mounted on top of one another on the screw device, such that the rotation of the screw device linearly moves the upper (14, 16) and lower (15, 17) bearings in opposite directions, - characterised in that the screw device comprises a first and a second screw (26a, 26b) arranged parallel against one another, on each side of the upper (14, 16) and lower (15, 17) bearings and passing through the upper (14, 16) and lower (15, 17) bearings.
A robotic cleaning apparatus (1, 200, 298) comprising: a body (2, 202, 304); a first antenna assembly comprising: a first antenna agitator configured to rotate about a first rotation axis that extends substantially parallel to a surface to be cleaned; and a first antenna extending from a distal end of the first antenna agitator in a first direction along the first rotation axis, wherein at least a portion of the first antenna extends from a periphery of the body (2, 202, 304); and an agitator assembly comprising a first agitator characterized in that the robotic cleaning apparatus further comprises a second agitator, wherein the agitator assembly further comprises an agitator cover, the agitator cover comprising: a plurality of teeth configured to engage the second agitator; and a first flexible strip and a second flexible strip (254-1, 254-2), the first and second (254-1, 254-2) flexible strips being disposed on opposing sides of the agitator cover. a body (2, 202, 304); a first antenna assembly comprising: a first antenna agitator configured to rotate about a first rotation axis that extends substantially parallel to a surface to be cleaned; and a first antenna extending from a distal end of the first antenna agitator in a first direction along the first rotation axis, wherein at least a portion of the first antenna extends from a periphery of the body (2, 202, 304); and a first antenna agitator configured to rotate about a first rotation axis that extends substantially parallel to a surface to be cleaned; and a first antenna extending from a distal end of the first antenna agitator in a first direction along the first rotation axis, wherein at least a portion of the first antenna extends from a periphery of the body (2, 202, 304); and an agitator assembly comprising a first agitator characterized in that the robotic cleaning apparatus further comprises a second agitator, wherein the agitator assembly further comprises an agitator cover, the agitator cover comprising: a plurality of teeth configured to engage the second agitator; and a first flexible strip and a second flexible strip (254-1, 254-2), the first and second (254-1, 254-2) flexible strips being disposed on opposing sides of the agitator cover. a plurality of teeth configured to engage the second agitator; and a first flexible strip and a second flexible strip (254-1, 254-2), the first and second (254-1, 254-2) flexible strips being disposed on opposing sides of the agitator cover.