mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an organic light emitting device, comprising: printing a patterned shadow mask including an organic material on a substrate ; depositing a first electrode, an organic material layer, and a second electrode on the substrate and the patterned shadow mask ; and removing the patterned shadow mask ; wherein the patterned shadow mask has a shape with a reversely tapered angle; wherein the shape with the reversely tapered angle is prepared by two or more printing processes. printing a patterned shadow mask including an organic material on a substrate ; depositing a first electrode, an organic material layer, and a second electrode on the substrate and the patterned shadow mask ; and removing the patterned shadow mask ; wherein the patterned shadow mask has a shape with a reversely tapered angle; wherein the shape with the reversely tapered angle is prepared by two or more printing processes.
A design method for a rig for guiding surgery in a joint, wherein said rig comprises a guide body in the form of a hollow tubular shell and a movable insert , configured to fit inside the hollow tubular shell so that a bore in the insert , when the insert is inserted in a first position inside the hollow tubular shell , defines an active guide channel in the form of a first cylinder, wherein another active guide channel in the form of a second cylinder may be formed by taking out the movable insert , turning it 180 degrees and inserting it again inside the hollow tubular shell , so that the hollow tubular shell is configured to define guide channels in the form of at least said first and second intersecting cylinders by said movable insert , the design method comprising; - identifying a damage area in said joint; - presenting a 3D view of said identified damage area in a virtual model of the joint; - generating a 3D model of a virtual rig, wherein the generating comprises virtually placing in said 3D view a shape at least partly covering said damage area in said virtual model of the joint; - creating, based on the position of the virtually placed shape , a position of said hollow tubular shell of the virtual rig; - selecting at least first and second intersecting cylinders of the virtual rig, based on the size and form of the virtually placed shape ; - designing the movable insert to fit inside the hollow tubular shell ; - creating a positioning surface of the virtual rig as a bone and/or cartilage engaging end of said hollow tubular shell and which positioning surface is adapted to follow the surface of the joint surrounding the virtually placed shape when the virtual rig is placed in the virtual model of the joint; - producing a rig according to the virtual rig. - identifying a damage area in said joint; - presenting a 3D view of said identified damage area in a virtual model of the joint; - generating a 3D model of a virtual rig, wherein the generating comprises virtually placing in said 3D view a shape at least partly covering said damage area in said virtual model of the joint; - creating, based on the position of the virtually placed shape , a position of said hollow tubular shell of the virtual rig; - selecting at least first and second intersecting cylinders of the virtual rig, based on the size and form of the virtually placed shape ; - designing the movable insert to fit inside the hollow tubular shell ; - creating a positioning surface of the virtual rig as a bone and/or cartilage engaging end of said hollow tubular shell and which positioning surface is adapted to follow the surface of the joint surrounding the virtually placed shape when the virtual rig is placed in the virtual model of the joint; - producing a rig according to the virtual rig.
A turbine ring assembly comprising a ring support structure and a plurality of ring sectors made of ceramic matrix composite material so as to form a turbine ring , each ring sector presenting, in a first section plane (I) defined by an axial direction (D A ) and a radial direction (D R ) of the turbine ring , a portion that forms an annular base having in the radial direction (D R ) of the turbine ring both an inner face defining the inside face of the turbine ring and an outer face from which there extend first and second attachment tabs defining between them a circumferentially-open annular cavity , the ring support structure having first and second radial tabs between which the first and second attachment tabs of each ring sector are held, together with at least one injection orifice for injecting a stream of cooling air into the annular cavity ; the assembly being characterized in that , in a second section plane containing the axial direction (D A ) of the ring and a direction (D C ) orthogonal to the first section plane (I), said injection orifice forms a first feed angle (α1) relative to said direction (D C ) that is orthogonal to the first section plane (I), which first feed angle (α1) lies in the range -80° to +80°.
Method for needling a non-woven web using a needling machine which comprises: a needle bar assembly which comprises at least one needle bar and a drive installation for moving the needle bar assembly in a reciprocating manner in an insertion direction (E) ; wherein the drive installation comprises a first drive and a first main shaft , wherein a first main crank which connects the first main shaft in an articulated manner to the needle bar assembly is eccentrically mounted on the first main shaft ; characterized by actuating the first drive in such a manner that said first drive moves the first main shaft in a cyclical reciprocating manner about a predetermined first rotation angle (α). a needle bar assembly which comprises at least one needle bar and a drive installation for moving the needle bar assembly in a reciprocating manner in an insertion direction (E) ; wherein the drive installation comprises a first drive and a first main shaft , wherein a first main crank which connects the first main shaft in an articulated manner to the needle bar assembly is eccentrically mounted on the first main shaft ; characterized by actuating the first drive in such a manner that said first drive moves the first main shaft in a cyclical reciprocating manner about a predetermined first rotation angle (α).
A method for transferring fuel for a turbine liquid fuel system, the method comprising: flowing water to at least one nozzle of a main fuel circuit during a start-up of the liquid fuel system until a 50% to 60% load operating condition occurs; flowing oil to the at least one nozzle of the main fuel circuit during the start-up of the liquid fuel system; wherein flowing water to the at least one nozzle of the main fuel circuit occurs prior to flowing oil to the main fuel circuit ; and flowing oil to at least one nozzle of a pilot fuel circuit prior to flowing water to the at least one nozzle of the main fuel circuit . flowing water to at least one nozzle of a main fuel circuit during a start-up of the liquid fuel system until a 50% to 60% load operating condition occurs; flowing oil to the at least one nozzle of the main fuel circuit during the start-up of the liquid fuel system; wherein flowing water to the at least one nozzle of the main fuel circuit occurs prior to flowing oil to the main fuel circuit ; and flowing oil to at least one nozzle of a pilot fuel circuit prior to flowing water to the at least one nozzle of the main fuel circuit .
An apparatus to acquire and track input signals modulated by two different modulation schemes, comprising: a first clock and data recovery, CDR, processing circuit configured to receive an input signal, wherein the first CDR processing circuit is configured to acquire phase lock and track phase lock to the input signal for a first modulation scheme, wherein the first signal processing circuit is configured to sample a preamble portion of a waveform of the input signal for a second modulation scheme at a first clock rate in order to acquire phase lock for the second modulation scheme; a second CDR processing circuit configured to receive the input signal, wherein the second CDR processing circuit is configured to track phase lock to the input signal for the second modulation scheme at a second clock rate, wherein the second clock rate is faster than the first clock rate; and a controller configured to receive an indication of which of at least the first modulation scheme or the second modulation scheme is applicable, to activate the first CDR processing circuit for acquisition and tracking of the input signal in the first modulation scheme at the second clock rate; to activate the first CDR processing circuit for acquisition of the input signal in the second modulation scheme at the first clock rate, and to activate the second CDR processing circuit for tracking of the input signal in the second modulation scheme at the second clock rate, wherein the first modulation scheme is binary frequency shift keying 2-FSK or 4-FSK a first clock and data recovery, CDR, processing circuit configured to receive an input signal, wherein the first CDR processing circuit is configured to acquire phase lock and track phase lock to the input signal for a first modulation scheme, wherein the first signal processing circuit is configured to sample a preamble portion of a waveform of the input signal for a second modulation scheme at a first clock rate in order to acquire phase lock for the second modulation scheme; a second CDR processing circuit configured to receive the input signal, wherein the second CDR processing circuit is configured to track phase lock to the input signal for the second modulation scheme at a second clock rate, wherein the second clock rate is faster than the first clock rate; and a controller configured to receive an indication of which of at least the first modulation scheme or the second modulation scheme is applicable, to activate the first CDR processing circuit for acquisition and tracking of the input signal in the first modulation scheme at the second clock rate; to activate the first CDR processing circuit for acquisition of the input signal in the second modulation scheme at the first clock rate, and to activate the second CDR processing circuit for tracking of the input signal in the second modulation scheme at the second clock rate, wherein the first modulation scheme is binary frequency shift keying 2-FSK or 4-FSK
Surgical instrument with a handle , a shaft extending from the handle into a distal direction, and an effector , preferably a medical forceps or a scissor, at a distal end of the shaft , wherein the handle comprises a plurality of manual actuating members being adapted to manipulate the effector for rotating, tilting and open-closing movements, the plurality of manual actuating members consists of: a first actuating member being rotatable around a rotational axis, which is a longitudinal axis of the shaft or that is parallel offset to the longitudinal axis, a second actuating member being rotatable around a rotational axis, which is identical to the rotational axis of the first actuating member or is parallel offset thereto and being movable along the longitudinal axis of the shaft . a first actuating member being rotatable around a rotational axis, which is a longitudinal axis of the shaft or that is parallel offset to the longitudinal axis, a second actuating member being rotatable around a rotational axis, which is identical to the rotational axis of the first actuating member or is parallel offset thereto and being movable along the longitudinal axis of the shaft .
Light-emitting diode chip comprising - a semiconductor layer sequence which is based on InGaAlAsP and which is configured for the generation of visible light or near-infrared radiation, - a current spreading layer which is located directly on the semiconductor layer sequence and which is based on AlGaAs, - an encapsulation layer which is applied in places directly to the current spreading layer and/or to the semiconductor layer sequence and which comprises an average thickness between 10 nm and 200 nm inclusive and a defect density of at most 10/mm 2 , - at least one cover layer which is applied in places directly to the encapsulation layer , - at least one non-metallic reflection layer which is located in places on a side of the current spreading layer facing away from the semiconductor layer sequence and which is covered in places by the encapsulation layer , and - at least one mirror layer and/or at least one adhesion-promoting layer , which is located in places on a side of the reflection layer facing away from the current spreading layer and is configured for energizing an electrical contact surface , wherein - the cover layer comprises a greater average thickness than the encapsulation layer , - the encapsulation layer completely and directly covers outer facets of the current spreading layer , and - the current spreading layer and the semiconductor layer sequence are laterally protruded by the reflection layer , seen in plan view, and the encapsulation layer is directly applied to regions of the reflection layer protruding the current spreading layer . - a semiconductor layer sequence which is based on InGaAlAsP and which is configured for the generation of visible light or near-infrared radiation, - a current spreading layer which is located directly on the semiconductor layer sequence and which is based on AlGaAs, - an encapsulation layer which is applied in places directly to the current spreading layer and/or to the semiconductor layer sequence and which comprises an average thickness between 10 nm and 200 nm inclusive and a defect density of at most 10/mm 2 , - at least one cover layer which is applied in places directly to the encapsulation layer , - at least one non-metallic reflection layer which is located in places on a side of the current spreading layer facing away from the semiconductor layer sequence and which is covered in places by the encapsulation layer , and - at least one mirror layer and/or at least one adhesion-promoting layer , which is located in places on a side of the reflection layer facing away from the current spreading layer and is configured for energizing an electrical contact surface , wherein - the cover layer comprises a greater average thickness than the encapsulation layer , - the encapsulation layer completely and directly covers outer facets of the current spreading layer , and - the current spreading layer and the semiconductor layer sequence are laterally protruded by the reflection layer , seen in plan view, and the encapsulation layer is directly applied to regions of the reflection layer protruding the current spreading layer .
An orthopedic implant comprising: a porous insert having a first insert portion having a first insert thickness and a second insert portion having a second insert thickness and having a porous first layer , an intermediate layer attached to the first layer, and a porous second layer attached to the intermediate layer on a side of the intermediate layer opposite the first layer; and a non-metallic structure having a first non-metallic portion having a first non-metallic thickness and a second non-metallic portion having a second non-metallic thickness, the first non-metallic portion being attached to the first insert portion and the second non-metallic portion being attached to the second insert portion, wherein either one or both of (i) the second insert thickness is different from the first insert thickness and (ii) the second non-metallic thickness is different from the first non-metallic thickness, the orthopedic implant being characterized in that the second layer includes a base having a base thickness and a porous projection extending from the base into the non-metallic structure and having a projection thickness greater than the base thickness, and wherein the first insert thickness, the second insert thickness, the first non-metallic thickness, the second non-metallic thickness, the base thickness, and the projection thickness are all defined in a same direction. a porous insert having a first insert portion having a first insert thickness and a second insert portion having a second insert thickness and having a porous first layer , an intermediate layer attached to the first layer, and a porous second layer attached to the intermediate layer on a side of the intermediate layer opposite the first layer; and a non-metallic structure having a first non-metallic portion having a first non-metallic thickness and a second non-metallic portion having a second non-metallic thickness, the first non-metallic portion being attached to the first insert portion and the second non-metallic portion being attached to the second insert portion, wherein either one or both of (i) the second insert thickness is different from the first insert thickness and (ii) the second non-metallic thickness is different from the first non-metallic thickness,
A dewatering screen for manufacturing a security paper having a window security thread that, after its embedding, is visible on at least one surface of the security paper in predetermined window regions of the security paper, the dewatering screen comprising a carrier mold that is furnished in a sub-region with an injection molded insert that comprises a relief having motif elements that extend upward from a base body and overtop the surface of the carrier mold and that are formed in the form of the predetermined window regions of the security paper in which the window security thread is to be visible, and the motif elements comprising, for producing microwindows, micromotif elements that have, transverse to the running direction of the thread to be embedded, a width that is less than 50% of the thread width and is between 0.2 mm and 4 mm, and whose contours constitute patterns, characters or a code, especially a sequence of letters or numbers, and/ or whose spatial arrangement forms a motif, especially letters, characters or figures.
Dual measurement apparatus for determining the nature of a gas, comprising: (a) a gas sensor for detecting at least one gas component of the gas, comprising: a helical capillary having a capillary wall (21.1) and having a cavity (21.2), wherein the capillary wall (21.1) is configured to suppress an emergence of electromagnetic radiation, a gas inlet (23.1) arranged at a first end of the capillary and a gas outlet (24.1) arranged at a second end of the capillary , such that the gas to be measured may be filled into and/or flow through the cavity (21.2), an optical incoupling point (23.2), which is configured to couple electromagnetic radiation into the cavity (21.2) of the capillary , and an optical outcoupling point (23.3), which is configured to couple the electromagnetic radiation out of the capillary , wherein the incoupling point (23.2) and the outcoupling point (23.3) are together formed at the first or second end of the capillary or are formed separately from each other at the opposing ends of the capillary , and (b) a temperature sensor for measuring a temperature of the gas, wherein the temperature sensor is arranged within a volume around which the capillary is wound. (a) a gas sensor for detecting at least one gas component of the gas, comprising: a helical capillary having a capillary wall (21.1) and having a cavity (21.2), wherein the capillary wall (21.1) is configured to suppress an emergence of electromagnetic radiation, a gas inlet (23.1) arranged at a first end of the capillary and a gas outlet (24.1) arranged at a second end of the capillary , such that the gas to be measured may be filled into and/or flow through the cavity (21.2), an optical incoupling point (23.2), which is configured to couple electromagnetic radiation into the cavity (21.2) of the capillary , and an optical outcoupling point (23.3), which is configured to couple the electromagnetic radiation out of the capillary , wherein the incoupling point (23.2) and the outcoupling point (23.3) are together formed at the first or second end of the capillary or are formed separately from each other at the opposing ends of the capillary , and a helical capillary having a capillary wall (21.1) and having a cavity (21.2), wherein the capillary wall (21.1) is configured to suppress an emergence of electromagnetic radiation, a gas inlet (23.1) arranged at a first end of the capillary and a gas outlet (24.1) arranged at a second end of the capillary , such that the gas to be measured may be filled into and/or flow through the cavity (21.2), an optical incoupling point (23.2), which is configured to couple electromagnetic radiation into the cavity (21.2) of the capillary , and an optical outcoupling point (23.3), which is configured to couple the electromagnetic radiation out of the capillary , wherein the incoupling point (23.2) and the outcoupling point (23.3) are together formed at the first or second end of the capillary or are formed separately from each other at the opposing ends of the capillary , and (b) a temperature sensor for measuring a temperature of the gas, wherein the temperature sensor is arranged within a volume around which the capillary is wound.
A tape for collecting tissue samples in a manner compatible with imaging in a transmission electron microscopy (TEM) system, the tape comprising: a substrate having a cross-section shape in the form of a channel with a top surface , a bottom surface , and a pair of side walls (142; 144) extending from the bottom surface , the side walls (142; 144) forming an internal space with an open side in proximity with bottom surfaces (142b; 144b) of the side walls (142; 144), the substrate having a stacked configuration in which the substrate is arranged in several concentric layers along its length, the concentric layers including at least a first layer and an immediately adjacent second layer ; a plurality of apertures centrally positioned across the width of the substrate and equally spaced along the length of the substrate ; and a support film providing structural integrity for receiving a tissue sample over each aperture , the bottom surfaces (142b; 144b) of the side walls (142; 144) in the first layer being in contact with the support film or the top surface of the substrate in the second layer , each aperture in the second layer being aligned with the open side between the side walls (142; 144), each aperture of the plurality of apertures being covered by the support film for receiving a respective tissue sample . a substrate having a cross-section shape in the form of a channel with a top surface , a bottom surface , and a pair of side walls (142; 144) extending from the bottom surface , the side walls (142; 144) forming an internal space with an open side in proximity with bottom surfaces (142b; 144b) of the side walls (142; 144), the substrate having a stacked configuration in which the substrate is arranged in several concentric layers along its length, the concentric layers including at least a first layer and an immediately adjacent second layer ; a plurality of apertures centrally positioned across the width of the substrate and equally spaced along the length of the substrate ; and a support film providing structural integrity for receiving a tissue sample over each aperture , the bottom surfaces (142b; 144b) of the side walls (142; 144) in the first layer being in contact with the support film or the top surface of the substrate in the second layer , each aperture in the second layer being aligned with the open side between the side walls (142; 144), each aperture of the plurality of apertures being covered by the support film for receiving a respective tissue sample .