mhurhangee/ep-ind-claims huggingface dataset:
A gripping device having slides (100, 101) bearing movable gripping elements (1, 2), wherein the slides (100, 101) are guided in a row, as seen in the gripping direction of the gripping elements (1, 2), in a guide groove parallel to the gripping direction - between an opening position and a closing position - which guide groove is arranged in a main body and is at least partially open to the gripping elements (1, 2), in such a manner that the slides (100, 101) can be driven via an actuator and are supported on all sides transversely to the gripping direction, - wherein a double sliding wedge member coupling the slides (100, 101) is arranged between said slides, which double sliding wedge member is articulated at a movable part of the actuator such that the double sliding wedge member is movable perpendicular to the gripping direction, - wherein the guide groove has one flat, precision-machined sealing zone in the groove base per slide (100, 101), - wherein a sealing strip is arranged at the underside of each slide (100, 101), which sealing strip seals the working lateral joint between the respective slide (100, 101) and the guide groove, - wherein each slide (100, 101) has two slide guide grooves with two guide flanks (33, 34) each, and - wherein each guide flank (33, 34) has leading ramps (37, 38) in the face end portions of the individual slide (100, 101), which leading ramps (37, 38) each provide a wedge gap between the individual slide (100, 101) and the slide guide rails (31, 32) of the housing, which wedge gaps widen toward the sled faces (103, 104). - which guide groove is arranged in a main body and is at least partially open to the gripping elements (1, 2), in such a manner that the slides (100, 101) can be driven via an actuator and are supported on all sides transversely to the gripping direction, - wherein a double sliding wedge member coupling the slides (100, 101) is arranged between said slides, which double sliding wedge member is articulated at a movable part of the actuator such that the double sliding wedge member is movable perpendicular to the gripping direction, - wherein the guide groove has one flat, precision-machined sealing zone in the groove base per slide (100, 101), - wherein a sealing strip is arranged at the underside of each slide (100, 101), which sealing strip seals the working lateral joint between the respective slide (100, 101) and the guide groove, - wherein each slide (100, 101) has two slide guide grooves with two guide flanks (33, 34) each, and - wherein each guide flank (33, 34) has leading ramps (37, 38) in the face end portions of the individual slide (100, 101), which leading ramps (37, 38) each provide a wedge gap between the individual slide (100, 101) and the slide guide rails (31, 32) of the housing, which wedge gaps widen toward the sled faces (103, 104).
An ophthalmoscope having a laser device for laser irradiation of an eye for carrying out a laser treatment of an eye, comprising an illuminator for illuminating the eye as well as a camera for acquiring an image of the eye, wherein said illuminator is configured to generate visible and infrared light, the ophthalmoscope further comprising a control unit which is configured to trigger the illuminator for generating a light pulse of visible light, and to read out from said camera a control image of the eye acquired by said camera during the light pulse, characterized in that the control unit is configured to trigger said illuminator for generating a light pulse and to read out the control image from the camera after a predetermined waiting time interval having a duration between 1 ms and 5s after a laser irradiation.
A beating apparatus, particularly for beating olives and the like, comprising at least one beating assembly (11, 12) supported by a beater head body, said at least one beating assembly (11, 12) comprising an oscillating sector (14, 15) which supports beating rods (16a, 16b) and is connected by means of a pivot (17, 18) to said bod so as to be able to oscillate about said body, wherein said at least one beating assembly (11, 12) comprises a linkage (19, 20) which functionally connects said oscillating sector (14, 15) to a crank which is supported by said body and connected to motor means, said oscillating sector (14, 15) being composed of a first part (14a, 15a) for coupling with one end of said rods (16a, 16b), which is elongated substantially transversely thereto, and wherein said pivot (17, 18) is connected rotatably to said first part (14a, 15a) in a region thereof that is substantially central with respect to its longitudinal extension, and said motor means comprises a gearmotor that has, eccentrically protruding from a gearwheel, a pin that so constitutes said crank and to which pin an end of said linkage (19, 20 is pivoted, thereby eccentric rotation of said pin is changed in reciprocating motion of said linkage (19,20) that makes said oscillating sector (14, 15) to oscillate about said pivot (17, 18), characterized in that said oscillating sector (14, 15) further comprises a second part (14b, 15b) for connection to said linkage (19, 20), which is pivoted thereto in a position that is spaced transversely from said first part (14a, 15a), said second part (14b, 15b) extending substantially transversely from a central region of said first part (14a, 15a) so that said oscillating sector (14, 15) is substantially T- shaped and has the free end thereof pivoted (C, D) to an end of said linkage (19, 20) that is opposite to the end of such linkage (19, 20) pivoted to said pin.
A method of operating a first terminal device to transmit user-plane data to a second terminal device by performing device-to-device communication, wherein the method comprises: selecting radio resources on which to transmit the user-plane data to the second terminal device based on a priority status associated with the user-plane data; transmitting the user-plane data to the second terminal device using the selected radio resources; characterized in: determining if another terminal device is transmitting user-plane data using a radio resource which is not selected by the first terminal device for transmitting the user-plane data based on its priority status; and cancelling transmissions of the user-plane data on one or more of the selected radio resources following a determination that another terminal device is transmitting user-plane data on a radio resource which is not selected by the first terminal device for transmitting the user-plane data based on its priority status. selecting radio resources on which to transmit the user-plane data to the second terminal device based on a priority status associated with the user-plane data; transmitting the user-plane data to the second terminal device using the selected radio resources; determining if another terminal device is transmitting user-plane data using a radio resource which is not selected by the first terminal device for transmitting the user-plane data based on its priority status; and cancelling transmissions of the user-plane data on one or more of the selected radio resources following a determination that another terminal device is transmitting user-plane data on a radio resource which is not selected by the first terminal device for transmitting the user-plane data based on its priority status.
Wax dispersion having an average particle size (by means of Fraunhofer diffraction) of from 0.5 to 100 μm, comprising (a) from 10 to 75% by weight, based on the wax dispersion, of a wax phase which melts in the range above 25°C and up to 50°C, which comprises at least one oil or wax component selected from the dialkyl(ene) ethers, dialkyl(ene) carbonates, dicarboxylic acids or hydroxy fatty alcohols or any desired mixture of these substances, and at least one emulsifier, and (b) a water phase. (a) from 10 to 75% by weight, based on the wax dispersion, of a wax phase which melts in the range above 25°C and up to 50°C, which comprises at least one oil or wax component selected from the dialkyl(ene) ethers, dialkyl(ene) carbonates, dicarboxylic acids or hydroxy fatty alcohols or any desired mixture of these substances, and at least one emulsifier, and (b) a water phase.
A therapeutic composition comprising free amino acids lysine, glycine, threonine, valine, tyrosine, aspartic acid, isoleucine, tryptophan, and serine; and optionally, therapeutically acceptable carriers, electrolytes, buffering agents, and flavoring agents for use in a method of improving lung function, wherein the method comprises administering, to a subject with a radiation-induced lung injury or lung complication, an effective amount of said composition.
A counter measure apparatus configured to modify a path of an electromagnetic detector signal so as to minimise or prevent incidence thereof on a platform, the apparatus comprising an electromagnetic radiation source, communicably coupled to a control system, said control system being configured to create an atmospheric element (40, 202) having a different refractive index to the surrounding atmosphere, wherein the atmospheric element is operative to diverge the path of an electromagnetic detector signal incident on the platform such that the path of the electromagnetic detector signal bypasses the platform, wherein the atmospheric element is created within an atmospheric volume located in said electromagnetic detector signal path by causing electromagnetic radiation from said source to be applied to a selected plurality of three-dimensional portions of said atmospheric volume so as to heat and/or ionise air within said portions so as to generate the atmospheric element, wherein said selected portions are spatially located together in a substantially unbroken, three-dimensional configuration.
A method for manufacturing a heating element comprising: preparing a bonding film, wherein the bonding film includes a first bonding film (no) and a second bonding film; forming a conductive heating pattern on the first bonding film, wherein an upper surface of the conductive heating pattern is exposed and the rest is embedded in the bonding film; laminating a transparent substrate on at least one surface of the bonding film provided with the conductive heating pattern; and characterized by laminating the second bonding film and the transparent substrate on the first bonding film (no), bonding the second bonding film on a surface opposite to the surface provided with the conductive heating pattern of the first bonding film, wherein the forming of the conductive heating pattern on the bonding film includes: - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film; - applying an external stimulus to the adhesive film; and - removing the adhesive film. preparing a bonding film, wherein the bonding film includes a first bonding film (no) and a second bonding film; forming a conductive heating pattern on the first bonding film, wherein an upper surface of the conductive heating pattern is exposed and the rest is embedded in the bonding film; laminating a transparent substrate on at least one surface of the bonding film provided with the conductive heating pattern; and characterized by laminating the second bonding film and the transparent substrate on the first bonding film (no), bonding the second bonding film on a surface opposite to the surface provided with the conductive heating pattern of the first bonding film, wherein the forming of the conductive heating pattern on the bonding film includes: - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film; - applying an external stimulus to the adhesive film; and - removing the adhesive film. - preparing an adhesive film provided with the conductive heating pattern and having an adhesive strength decrement of 30% or greater by an external stimulus based on adhesive strength before the external stimulus; - bonding the conductive heating pattern on the bonding film by laminating the conductive heating pattern -provided adhesive film on the bonding film; - applying an external stimulus to the adhesive film; and - removing the adhesive film.
A drive assembly for a drug delivery system, the drive assembly comprising: a plunger member configured to engage and move a stopper within a container, the plunger member having a first position and a second position axially spaced from the first position; a biasing member configured to move the plunger member from the first position to the second position; and an adjustable spacer assembly 1300 positioned between the plunger member and the stopper, wherein the biasing member drives the plunger member from the first position to the second position against the adjustable spacer assembly to move the stopper to dispense medicament from the container, wherein the adjustable spacer assembly comprises a spacer element and a holder to which the spacer element is attached by a threaded engagement, characterized in that the spacer element comprises an annular ring, the holder comprises a sidewall and a central post, and wherein an exterior surface of the annular ring of the spacer element is in threaded engagement with an interior surface of the sidewall of the holder, and an interior surface of the ring of the spacer is in threaded engagement with an exterior surface of the central post. a plunger member configured to engage and move a stopper within a container, the plunger member having a first position and a second position axially spaced from the first position; a biasing member configured to move the plunger member from the first position to the second position; and an adjustable spacer assembly 1300 positioned between the plunger member and the stopper, wherein the biasing member drives the plunger member from the first position to the second position against the adjustable spacer assembly to move the stopper to dispense medicament from the container, wherein the adjustable spacer assembly comprises a spacer element and a holder to which the spacer element is attached by a threaded engagement, characterized in that the spacer element comprises an annular ring, the holder comprises a sidewall and a central post, and wherein an exterior surface of the annular ring of the spacer element is in threaded engagement with an interior surface of the sidewall of the holder, and an interior surface of the ring of the spacer is in threaded engagement with an exterior surface of the central post.
A method of forming a memory device, comprising: forming a first polysilicon layer using a first polysilicon deposition over and insulated from a semiconductor substrate; forming an insulation spacer directly on the first polysilicon layer; removing some of the first polysilicon layer so as to leave a block of the first polysilicon layer under the insulation spacer, wherein the block of the first polysilicon layer has opposing first and second side surfaces (15a, 15b) defined by side surfaces of the insulation spacer; forming a source region in the substrate adjacent the second side surface; forming a second polysilicon layer using a second polysilicon deposition, different from the first polysilicon deposition, over the substrate; removing some of the second polysilicon layer so as to leave a block of the second polysilicon layer that is over and insulated from the substrate, and adjacent to and insulated from the first side surface; forming a third polysilicon layer using a third polysilicon deposition, different from the first and second polysilicon depositions, over the substrate; removing some of the third polysilicon layer so as to leave a block of the third polysilicon layer that is over and insulated from the source region; and forming a drain region in the substrate adjacent to the block of the second polysilicon layer. forming a first polysilicon layer using a first polysilicon deposition over and insulated from a semiconductor substrate; forming an insulation spacer directly on the first polysilicon layer; removing some of the first polysilicon layer so as to leave a block of the first polysilicon layer under the insulation spacer, wherein the block of the first polysilicon layer has opposing first and second side surfaces (15a, 15b) defined by side surfaces of the insulation spacer; forming a source region in the substrate adjacent the second side surface; forming a second polysilicon layer using a second polysilicon deposition, different from the first polysilicon deposition, over the substrate; removing some of the second polysilicon layer so as to leave a block of the second polysilicon layer that is over and insulated from the substrate, and adjacent to and insulated from the first side surface; forming a third polysilicon layer using a third polysilicon deposition, different from the first and second polysilicon depositions, over the substrate; removing some of the third polysilicon layer so as to leave a block of the third polysilicon layer that is over and insulated from the source region; and forming a drain region in the substrate adjacent to the block of the second polysilicon layer.
A webbing take-up device comprising: a spool that takes up a webbing worn by an occupant, and that is rotated in a pull-out direction by the webbing being pulled out; a lock section that limits pull-out direction rotation of the spool in a vehicle emergency; an energy absorption member configured to be deformed so as to generate a force limiter load in the spool, in a case in which the lock section has limited pull-out direction rotation of the spool; a moving section to which the energy absorption member is anchored, and that moves the energy absorption member by the spool being rotated in a case in which the lock section has limited rotation of the spool; a pressing section (52, 54) including a pressing face that presses the energy absorption member such that the energy absorption member is deformed; and a pass-through portion through which the energy absorption member that has passed the pressing face passes, wherein: on the energy absorption member, a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face, and a width of the pass-through portion is wider than a width of the initial deformation location. a spool that takes up a webbing worn by an occupant, and that is rotated in a pull-out direction by the webbing being pulled out; a lock section that limits pull-out direction rotation of the spool in a vehicle emergency; an energy absorption member configured to be deformed so as to generate a force limiter load in the spool, in a case in which the lock section has limited pull-out direction rotation of the spool; a moving section to which the energy absorption member is anchored, and that moves the energy absorption member by the spool being rotated in a case in which the lock section has limited rotation of the spool; a pressing section (52, 54) including a pressing face that presses the energy absorption member such that the energy absorption member is deformed; and a pass-through portion through which the energy absorption member that has passed the pressing face passes, wherein: on the energy absorption member, a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face, and a width of the pass-through portion is wider than a width of the initial deformation location. on the energy absorption member, a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face, and a width of the pass-through portion is wider than a width of the initial deformation location.
A method for polishing a conductive metal surface comprising the steps of a) providing an electrolyte comprising ammonium nitrate and ammonium chloride, wherein the electrolyte is an aqueous solution comprising 1 to 20 weight percent (wt%) of a mixture of ammonium nitrate and ammonium chloride, b) connecting a first electrode to said conductive metal surface and connecting a second electrode to said electrolyte, wherein said conductive metal surface is the anode, then c) applying a first electrical voltage to said first electrode and said second electrode in a first voltage step, then d) contacting said conductive metal surface with said electrolyte, in an immersion step, then e) applying without interruption a second electrical voltage, wherein the first voltage is essentially the same as the second voltage, wherein said second electrical voltage is below the threshold for generating a plasma and between 80 V and 350 V, and f) maintaining said second electrical voltage for a period of at least 1 second. a) providing an electrolyte comprising ammonium nitrate and ammonium chloride, wherein the electrolyte is an aqueous solution comprising 1 to 20 weight percent (wt%) of a mixture of ammonium nitrate and ammonium chloride, b) connecting a first electrode to said conductive metal surface and connecting a second electrode to said electrolyte, wherein said conductive metal surface is the anode, then c) applying a first electrical voltage to said first electrode and said second electrode in a first voltage step, then d) contacting said conductive metal surface with said electrolyte, in an immersion step, then e) applying without interruption a second electrical voltage, wherein the first voltage is essentially the same as the second voltage, wherein said second electrical voltage is below the threshold for generating a plasma and between 80 V and 350 V, and f) maintaining said second electrical voltage for a period of at least 1 second.
A method for reducing acrylamide formation in thermally processed foods, said method comprising the steps of: a) removing between 80% and 88% of a potato peel from a plurality of potatoes to make a plurality of peeled potatoes; b) slicing said peeled potatoes to make a plurality of potato slices; c) frying said potato slices at ambient pressure in a fryer having an outlet oil temperature of between 146°C (295°F) and 152°C (305°F) to a moisture content of between 1.3% to 2.0% by weight to make a plurality of fried potato slices; d) identifying defective potato slices by analyzing each of said fried potato slices for a potato defect known to be characteristic of a level of acrylamide more than twice the acrylamide level of a non-defective potato slice thermally processed under the same conditions, wherein said potato defect comprises a sugar defect; and e) routing said defective potato slices to a waste stream. a) removing between 80% and 88% of a potato peel from a plurality of potatoes to make a plurality of peeled potatoes; b) slicing said peeled potatoes to make a plurality of potato slices; c) frying said potato slices at ambient pressure in a fryer having an outlet oil temperature of between 146°C (295°F) and 152°C (305°F) to a moisture content of between 1.3% to 2.0% by weight to make a plurality of fried potato slices; d) identifying defective potato slices by analyzing each of said fried potato slices for a potato defect known to be characteristic of a level of acrylamide more than twice the acrylamide level of a non-defective potato slice thermally processed under the same conditions, wherein said potato defect comprises a sugar defect; and e) routing said defective potato slices to a waste stream.