mhurhangee/ep-ind-claims huggingface dataset:
Installation with a continuous press for the production of wood based boards with a removal device for the removal of wood particles emerging laterally from the continuous press, wherein the continuous press comprises a circulating upper belt and lower belt which form a press gap and which with the aid of at least partially heatable pressure plates (7, 8) can be pressed against a wood fibre material, characterised in that the removal device comprise a collecting funnel device for the wood particles which is arranged laterally of the press gap at least in one end section of the continuous press, and a mechanical transporting device, wherein the collecting funnel device forwards the wood particles to the transporting device, wherein the collecting funnel device is designed in such a way that the wood particles, due to their gravity and their freedom of movement being limited by the side walls of the collecting funnel device, fall onto the mechanical transport device.
A Raman generator comprising: a Raman medium configured to receive a pump pulse at a first wavelength and shift at least a portion of the pump pulse energy or power into a Stokes-shifted pulse at a second wavelength, the Raman medium having a symmetry axis; and one or more optical elements (340, 345) configured to pass the pump pulse and the Stokes-shifted pulse multiple times through the Raman medium; wherein each pass of the pulses through the Raman medium follows a path; and wherein successive paths of consecutive passes of the pulses through the Raman medium alternate between opposite sides of the symmetry axis of the Raman medium. a Raman medium configured to receive a pump pulse at a first wavelength and shift at least a portion of the pump pulse energy or power into a Stokes-shifted pulse at a second wavelength, the Raman medium having a symmetry axis; and one or more optical elements (340, 345) configured to pass the pump pulse and the Stokes-shifted pulse multiple times through the Raman medium; wherein each pass of the pulses through the Raman medium follows a path; and wherein successive paths of consecutive passes of the pulses through the Raman medium alternate between opposite sides of the symmetry axis of the Raman medium.
A piston for an internal combustion engine comprising: a crown that has a cavity formed to be recessed from a piston top surface toward a piston lower side; an outer peripheral portion that is joined to said crown so as to surround at least a piston outer peripheral side of said crown, and has a ring groove formed on its outer periphery for holding a piston ring; cooling channels that include a gap between said crown and said outer peripheral portion, and are formed at the piston outer peripheral side and at the piston lower side of said cavity so as to make the piston outer peripheral side and the piston lower side in communication with each other; and at least two communication holes that make said cooling channels and a piston outside in communication with each other, and serve as an inlet port or an outlet port for lubricating oil; wherein said outer peripheral portion also surrounds a piston lower portion at the lower side of said crown; and wherein said crown has a central reinforcement portion that protrudes from an outer surface of said cavity so as to extend up to a bottom surface of said cooling channels on a piston central axis; characterized in that a through hole is formed through the bottom surface of said cooling channels into which hole said central reinforcement portion is to be inserted; and the bottom surface of said cooling channels around the periphery of said central reinforcement portion is recessed toward the piston lower side, wherein said crown has a reinforcement part (34,35) which protrudes to a side of said cooling channels so as to reinforce said crown, and which is arranged with a passage being formed for the lubricating oil to move between the individual cooling channels which are formed at the piston outer peripheral side and at the piston lower side of said cavity, respectively. a crown that has a cavity formed to be recessed from a piston top surface toward a piston lower side; an outer peripheral portion that is joined to said crown so as to surround at least a piston outer peripheral side of said crown, and has a ring groove formed on its outer periphery for holding a piston ring; cooling channels that include a gap between said crown and said outer peripheral portion, and are formed at the piston outer peripheral side and at the piston lower side of said cavity so as to make the piston outer peripheral side and the piston lower side in communication with each other; and at least two communication holes that make said cooling channels and a piston outside in communication with each other, and serve as an inlet port or an outlet port for lubricating oil; wherein said outer peripheral portion also surrounds a piston lower portion at the lower side of said crown; and wherein said crown has a central reinforcement portion that protrudes from an outer surface of said cavity so as to extend up to a bottom surface of said cooling channels on a piston central axis;
Connection device for connecting a conductor onto a busbar comprising: - a spring-loaded clamp, - a conductor connection device, which is connected in an electroconductive manner to the spring-loaded clamp, and - an insulating material housing comprising a housing section, wherein the spring-loaded clamp and the conductor connection device are mounted in the housing section, wherein the housing section has a insertion groove for receiving a section of the busbar, wherein the spring-loaded clamp projects into the insertion groove, in order to be brought into contact with the section and to connect the spring-loaded clamp in an electroconductive manner to the busbar, wherein the insulating material housing comprises a closure section, which is suitable for adopting an open position (S O) and a closed position (S V), wherein the connection device in the open position (S O) in an insertion direction approximately perpendicular to a direction of extension of the busbar can be fitted onto the busbar in order to receive the section in the insertion groove, wherein the closure section closes the insertion groove in the closed position (S V), in order to hold the section in the closed position (S V) in a form-fitting manner in the insertion groove, and wherein the closure section is held movably on the housing section, characterised in that the closure section by a movement in a displacement direction approximately orthogonal to the insertion direction can be moved from the open position (S O) to the closed position (S V). - a spring-loaded clamp, - a conductor connection device, which is connected in an electroconductive manner to the spring-loaded clamp, and - an insulating material housing comprising a housing section,
A method of forming a biosensor chip, comprising: forming semiconductor components in a semiconductor wafer; forming filled electrically conductive connection regions(204a,204b) in a dielectric layer overlying the semiconductor components, the filled electrically conductive connection regions (204a,204b) making electrical contact to the semiconductor components, and comprising at least a bond pad connection region and a detection electrode connection region; forming a first capping layer over the dielectric layer, and forming at least one filled electrically conductive connection via in the first capping layer making contact with the detection electrode connection region, wherein no connection vias are formed over the at least one bond pad connection region; forming a second capping layer over the first capping layer; forming at least one via in the second capping layer, aligned with the at least one filled electrically conductive connection via in the first capping layer; forming a bond pad opening in the second capping layer, over the bond pad connection region and extending down to the dielectric layer; forming a diffusion barrier (240,242) over the top of the structure and which completely fills the at least one via in the second capping layer; providing a bond pad connection layer over the top of the structure and which fills the diffusion barrier-lined bond pad opening; and planarizing the structure down to the second capping layer. forming semiconductor components in a semiconductor wafer; forming filled electrically conductive connection regions(204a,204b) in a dielectric layer overlying the semiconductor components, the filled electrically conductive connection regions (204a,204b) making electrical contact to the semiconductor components, and comprising at least a bond pad connection region and a detection electrode connection region; forming a first capping layer over the dielectric layer, and forming at least one filled electrically conductive connection via in the first capping layer making contact with the detection electrode connection region, wherein no connection vias are formed over the at least one bond pad connection region; forming a second capping layer over the first capping layer; forming at least one via in the second capping layer, aligned with the at least one filled electrically conductive connection via in the first capping layer; forming a bond pad opening in the second capping layer, over the bond pad connection region and extending down to the dielectric layer; forming a diffusion barrier (240,242) over the top of the structure and which completely fills the at least one via in the second capping layer; providing a bond pad connection layer over the top of the structure and which fills the diffusion barrier-lined bond pad opening; and planarizing the structure down to the second capping layer.
Method for hardening an anti-reflection treatment deposited on a transparent sapphire substrate, this transparent substrate comprising a top surface and a bottom surface which extends remotely from the top surface, the anti-reflection treatment comprising the step consisting of depositing by vacuum evaporation at least one anti-reflection layer of at least one material on at least one of the top and bottom surfaces of the transparent substrate, the hardening method comprising the step consisting of bombarding the at least one top or bottom surface on which the at least one anti-reflection layer has been deposited using a beam of singly-charged and/or multi-charged ions produced by a ECR electron cyclotron resonance ion source of singly-charged and/or multi-charged ions, the ions being accelerated under a voltage that lies in the range 30 kV to 50 kV and the dose of ions to be implanted lying in the range 0.1·10 16 ions/cm 2 to 2.10 16 ions/cm 2.
Segment for a structure, comprising two side slabs between which a core element is arranged, wherein - the side slabs are formed from polymer concrete, - the core element is formed from a foamed plastic, - the core element is connected to the respective side slab by a form-fit and/or force-fit, characterized in that - in each case at least one anchoring element (4, 5) is arranged in the core element and in the side slabs and by means of which the side slabs are each connected to the core element by a form-fit and/or force-fit, - the at least one anchoring element arranged in the core element is foamed in the core element by virtue of the fact that, during formation of the core element, said anchoring element is integrated into the latter by foaming of the plastic and is thus connected thereto at least by a material bond, and - the at least one anchoring element arranged in the respective side slab is cast into the polymer concrete of the respective side slab and is thereby connected to the respective side slab at least by a material bond. - the side slabs are formed from polymer concrete, - the core element is formed from a foamed plastic, - the core element is connected to the respective side slab by a form-fit and/or force-fit, characterized in that - in each case at least one anchoring element (4, 5) is arranged in the core element and in the side slabs and by means of which the side slabs are each connected to the core element by a form-fit and/or force-fit, - the at least one anchoring element arranged in the core element is foamed in the core element by virtue of the fact that, during formation of the core element, said anchoring element is integrated into the latter by foaming of the plastic and is thus connected thereto at least by a material bond, and - the at least one anchoring element arranged in the respective side slab is cast into the polymer concrete of the respective side slab and is thereby connected to the respective side slab at least by a material bond.
A mobile communications device (30, 30') comprising: a near field communications, NFC, device (36, 36'); an input device (43, 43') configured to generate a memory wipe command; a secure element (32, 32') comprised in a memory (33, 33') and configured to install data from a trusted service manager, TSM, only during an over-the-air, OTA, secure channel connection with the TSM; and a memory controller (35, 35') coupled with the NFC device, the input device, and the secure element, the memory controller comprising a secure element controller and being configured to receive secure data, via the secure channel, from the TSM (34, 34') to install in the secure element, the mobile communications device being characterised by the memory controller (35,35') being further configured to receive wiping instruction data from the TSM during the secure channel OTA connection with the TSM for wiping the secure data from the secure element, and wipe the secure data from the secure element at a later time without a secure channel OTA connection with the TSM based upon the memory wipe command and the received wiping instruction data. a near field communications, NFC, device (36, 36'); an input device (43, 43') configured to generate a memory wipe command; a secure element (32, 32') comprised in a memory (33, 33') and configured to install data from a trusted service manager, TSM, only during an over-the-air, OTA, secure channel connection with the TSM; and a memory controller (35, 35') coupled with the NFC device, the input device, and the secure element, the memory controller comprising a secure element controller and being configured to receive secure data, via the secure channel, from the TSM (34, 34') to install in the secure element, during the secure channel OTA connection with the TSM for wiping the secure data from the secure element, and wipe the secure data from the secure element at a later time without a secure channel OTA connection with the TSM based upon the memory wipe command and the received wiping instruction data. wipe the secure data from the secure element at a later time without a secure channel OTA connection with the TSM based upon the memory wipe command and the received wiping instruction data.
A method for protecting cement surfaces in a well-bore treatment zone from the destructive effects of contact with acid-containing compositions utilized to treat the adjacent reservoir rock formation, the method comprising the steps of: (a) contacting the cement surfaces to be protected with an aqueous acid mixture of 10 wt. % acetic acid at a concentration of 1.67M and 1.5 wt. % hydrofluoric acid at a concentration of 0.75M in ethylene glycol monobutyl ether which is a mutual solvent for the acid mixture for a period of at least two hours whereby a protective precipitate is formed on the surface of the cement; (b) flushing any remaining aqueous acid mixture from the surface of the treated cement; and (c) acidizing the formation with a mud acid consisting of hydrochloric acid and hydrofluoric acid. (a) contacting the cement surfaces to be protected with an aqueous acid mixture of 10 wt. % acetic acid at a concentration of 1.67M and 1.5 wt. % hydrofluoric acid at a concentration of 0.75M in ethylene glycol monobutyl ether which is a mutual solvent for the acid mixture for a period of at least two hours whereby a protective precipitate is formed on the surface of the cement; (b) flushing any remaining aqueous acid mixture from the surface of the treated cement; and (c) acidizing the formation with a mud acid consisting of hydrochloric acid and hydrofluoric acid.
A method for tracking image sections which represent indicator body parts of a body in a process sequence of images, wherein changes in the position of the indicator body parts are used as an indicator for changes in the position of a treatment body part of the body which is to be treated using a treatment beam, said method comprising the following steps: providing advance image data which describe an advance sequence of images representing a result of an advance analysis of the body; providing process image data which describe the process sequence of images, wherein the process sequence of images represents a result of a process analysis of the body which is performed after the advance analysis; determining, on the basis of the advance image data, a set of sub-images which undergo similar changes in position in the advance sequence; extracting, on the basis of the process image data and the determined set of sub-images, a set of image sections from the images of the process sequence which undergo similar changes in position and which have an image content which corresponds to the image content of the determined sub-images; and tracking the set of extracted image sections in the process sequence as a group. providing advance image data which describe an advance sequence of images representing a result of an advance analysis of the body; providing process image data which describe the process sequence of images, wherein the process sequence of images represents a result of a process analysis of the body which is performed after the advance analysis; determining, on the basis of the advance image data, a set of sub-images which undergo similar changes in position in the advance sequence; extracting, on the basis of the process image data and the determined set of sub-images, a set of image sections from the images of the process sequence which undergo similar changes in position and which have an image content which corresponds to the image content of the determined sub-images; and tracking the set of extracted image sections in the process sequence as a group.
A method for providing a user interface in a device (100, 200, 300, 400, 600), the method comprising: displaying first (111, 211-1, 211-2, 211-3, 211-4, 211, 311, 611, 711) and second (112, 212-1, 212-2, 212-3, 212-4, 212, 312, 612, 712) selection areas on a display; receiving user input selecting the first selection area and the second selection area; characterised in that the method comprises: performing a first predetermined action for the selected object in response to the user input selecting the first selection area before the second selection area; and performing a second predetermined action for the selected object in response to the user input selecting the second selection area before the first selection area, wherein the first selection area is an area for selecting an object and the second selection area is an area for selecting an action to be performed for the object; and wherein the first predetermined action and the second predetermined action are different. displaying first (111, 211-1, 211-2, 211-3, 211-4, 211, 311, 611, 711) and second (112, 212-1, 212-2, 212-3, 212-4, 212, 312, 612, 712) selection areas on a display; receiving user input selecting the first selection area and the second selection area; characterised in that the method comprises: performing a first predetermined action for the selected object in response to the user input selecting the first selection area before the second selection area; and performing a second predetermined action for the selected object in response to the user input selecting the second selection area before the first selection area, performing a first predetermined action for the selected object in response to the user input selecting the first selection area before the second selection area; and performing a second predetermined action for the selected object in response to the user input selecting the second selection area before the first selection area, wherein the first selection area is an area for selecting an object and the second selection area is an area for selecting an action to be performed for the object; and wherein the first predetermined action and the second predetermined action are different.
An intraocular lens, comprising: an optic portion (330, 350, 360, 370, 380); and a peripheral portion, wherein an outer periphery of the optic portion (330, 350, 360, 370, 380) has a peripheral surface, wherein a radially inner portion (343, 337) of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression (335, 351, 352, 361, 362, 371, 372, 381, 382) and wherein at least a portion of the inner surface is disposed in the depression (335, 351, 352, 361, 362, 371, 372, 381, 382) such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface. an optic portion (330, 350, 360, 370, 380); and a peripheral portion, wherein an outer periphery of the optic portion (330, 350, 360, 370, 380) has a peripheral surface, wherein a radially inner portion (343, 337) of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression (335, 351, 352, 361, 362, 371, 372, 381, 382) and wherein at least a portion of the inner surface is disposed in the depression (335, 351, 352, 361, 362, 371, 372, 381, 382) such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface. wherein an outer periphery of the optic portion (330, 350, 360, 370, 380) has a peripheral surface, wherein a radially inner portion (343, 337) of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression (335, 351, 352, 361, 362, 371, 372, 381, 382) and wherein at least a portion of the inner surface is disposed in the depression (335, 351, 352, 361, 362, 371, 372, 381, 382) such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface.