mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a pattern for an integrated circuit, comprising the steps of: a. providing a hardmask layer, b. overlaying the hard mask layer with a material layer having a shape comprising a set of parallel material lines delimiting gaps therebetween, said gaps forming a first set of gaps, c. providing a spacer layer following the shape of the material layer, the spacer layer thereby covering the top of the material lines, d. removing a top portion of the spacer layer in such a way as to expose a top surface of the material lines, thereby forming spacer lines alternatively separated by material lines and by gaps of the first set, e. providing a blocking element in a portion of a gap of the first set present between two spacer lines and between two material lines, f. etching selectively the hard mask layer by using the material layer, the spacer lines and the blocking element as a mask, thereby providing a first set of parallel trenches in the hardmask layer, wherein a trench has a blocked portion, and g. selectively removing the blocking element. a. providing a hardmask layer, b. overlaying the hard mask layer with a material layer having a shape comprising a set of parallel material lines delimiting gaps therebetween, said gaps forming a first set of gaps, c. providing a spacer layer following the shape of the material layer, the spacer layer thereby covering the top of the material lines, d. removing a top portion of the spacer layer in such a way as to expose a top surface of the material lines, thereby forming spacer lines alternatively separated by material lines and by gaps of the first set, e. providing a blocking element in a portion of a gap of the first set present between two spacer lines and between two material lines, f. etching selectively the hard mask layer by using the material layer, the spacer lines and the blocking element as a mask, thereby providing a first set of parallel trenches in the hardmask layer, wherein a trench has a blocked portion, and g. selectively removing the blocking element.
An inspection system for a turbine engine, the inspection system comprising: at least one inspection system housing including at least one internal chamber, wherein the at least one inspection system housing is attachable to a pilot nozzle port in a combustor of the turbine engine; at least one extendible camera support shaft positioned within the at least one internal chamber extending distally from a distal opening in the at least one inspection system housing; wherein the at least one extendible camera support shaft is rotatable about a longitudinal axis of the at least one extendible camera support shaft; wherein the at least one extendible camera support shaft is extendible such that a distal end of the at least one extendible camera support shaft is movable longitudinally along the longitudinal axis; at least one camera lens supported by the at least one extendible camera support shaft at a location outside of the at least one inspection system housing distal to the distal opening; wherein the at least one camera lens is rotatable about an axis generally orthogonal to the longitudinal axis of the at least one extendible camera support shaft; characterised in that a data management system configured to coordinate detailed image information together with at least one image captured by at least one camera in communication with the at least one camera lens, the data management system is adapted to store images together with position coordinates related to the position of the camera when the image was recorded. at least one inspection system housing including at least one internal chamber, wherein the at least one inspection system housing is attachable to a pilot nozzle port in a combustor of the turbine engine; at least one extendible camera support shaft positioned within the at least one internal chamber extending distally from a distal opening in the at least one inspection system housing; wherein the at least one extendible camera support shaft is rotatable about a longitudinal axis of the at least one extendible camera support shaft; wherein the at least one extendible camera support shaft is extendible such that a distal end of the at least one extendible camera support shaft is movable longitudinally along the longitudinal axis; at least one camera lens supported by the at least one extendible camera support shaft at a location outside of the at least one inspection system housing distal to the distal opening; wherein the at least one camera lens is rotatable about an axis generally orthogonal to the longitudinal axis of the at least one extendible camera support shaft; characterised in that a data management system configured to coordinate detailed image information together with at least one image captured by at least one camera in communication with the at least one camera lens, the data management system is adapted to store images together with position coordinates related to the position of the camera when the image was recorded.
A process for the preparation of a superalloy metal comprising the steps of providing a metal alloy powder composition; providing a seed crystal; processing the metal alloy powder composition in the presence of the seed crystal to provide a superalloy metal having a highly textured or single crystal microstructure; characterised in that the processing step is performed by electron beam melting.
A method for energy storing and short-term power generation, comprising the steps of: a) storing liquid CO 2 in an underground reservoir arranged to continually receive liquid CO 2 at a first temperature from one or more CO 2 capture sites and to discharge liquid CO 2 to be transported to a final storage, the underground reservoir being maintained at a pressure of 8 - 10 bar; b) when short-term power generation is needed, carrying out the following steps: - withdrawing liquid CO 2 from the underground reservoir and increasing the pressure of the liquid CO 2 to about 40 - 50 bar; - evaporating the pressurized CO 2 with the help of a low value heat source; - expanding the evaporated CO 2 to a pressure of 8 - 10 bar, whereby rotary power is produced which is used for generation of electrical power; - condensing the expanded CO 2 and returning the condensed CO 2 to the underground reservoir at a second temperature which is higher than the first temperature; c) when short-term power generation is no more needed, circulating liquid CO 2 from the underground reservoir through a heat pump to cool the liquid CO 2 until its temperature reaches the first temperature. a) storing liquid CO 2 in an underground reservoir arranged to continually receive liquid CO 2 at a first temperature from one or more CO 2 capture sites and to discharge liquid CO 2 to be transported to a final storage, the underground reservoir being maintained at a pressure of 8 - 10 bar; b) when short-term power generation is needed, carrying out the following steps: - withdrawing liquid CO 2 from the underground reservoir and increasing the pressure of the liquid CO 2 to about 40 - 50 bar; - evaporating the pressurized CO 2 with the help of a low value heat source; - expanding the evaporated CO 2 to a pressure of 8 - 10 bar, whereby rotary power is produced which is used for generation of electrical power; - condensing the expanded CO 2 and returning the condensed CO 2 to the underground reservoir at a second temperature which is higher than the first temperature; - withdrawing liquid CO 2 from the underground reservoir and increasing the pressure of the liquid CO 2 to about 40 - 50 bar; - evaporating the pressurized CO 2 with the help of a low value heat source; - expanding the evaporated CO 2 to a pressure of 8 - 10 bar, whereby rotary power is produced which is used for generation of electrical power; - condensing the expanded CO 2 and returning the condensed CO 2 to the underground reservoir at a second temperature which is higher than the first temperature; c) when short-term power generation is no more needed, circulating liquid CO 2 from the underground reservoir through a heat pump to cool the liquid CO 2 until its temperature reaches the first temperature.
An aircraft passenger seat, comprising: a seat including a seat bottom and a seatback; and a tray table assembly arranged alongside the seat, the tray table assembly comprising a horizontal rail arranged alongside the passenger seat and having a length extending from the seatback to a position forward of the seat, a carriage assembly configured to travel horizontally along the length of the horizontal rail, and a tray table pivotally attached to the carriage assembly configured to pivot between a vertical orientation in which the tray table is stowed alongside the seatback and a horizontal orientation in which the tray table is positioned forward of the seatback, characterized in that the tray table assembly further comprises a ledge arranged parallel to and vertically below the horizontal rail, the ledge continuous along a portion of the length of the horizontal rail such that the ledge interferes with the carriage assembly to prevent the carriage assembly from lowering until the carriage assembly is forward and clear of the ledge. a seat including a seat bottom and a seatback; and a tray table assembly arranged alongside the seat, the tray table assembly comprising a horizontal rail arranged alongside the passenger seat and having a length extending from the seatback to a position forward of the seat, a carriage assembly configured to travel horizontally along the length of the horizontal rail, and a tray table pivotally attached to the carriage assembly configured to pivot between a vertical orientation in which the tray table is stowed alongside the seatback and a horizontal orientation in which the tray table is positioned forward of the seatback, characterized in that the tray table assembly further comprises a ledge arranged parallel to and vertically below the horizontal rail, the ledge continuous along a portion of the length of the horizontal rail such that the ledge interferes with the carriage assembly to prevent the carriage assembly from lowering until the carriage assembly is forward and clear of the ledge.
A wall-flow filter comprising a catalyst for converting oxides of nitrogen in the presence of a reducing agent, which wall-flow filter comprising an extruded solid body comprising: 10-95% by weight of at least one binder/matrix component; 5-90% by weight of a zeolitic molecular sieve, a non-zeolitic molecular sieve or a mixture of any two or more thereof; and 0-80% by weight optionally stabilised ceria, which catalyst comprising at least one metal, wherein: (i) the at least one metal is present throughout the extruded solid body and is also present in a higher concentration at a surface of the extruded solid body; (ii) the at least one metal is present throughout the extruded solid body and is also carried in one or more coating layer(s) on a surface of the extruded solid body; or (iii) the at least one metal is present throughout the extruded solid body, is present in a higher concentration at a surface of the extruded solid body and is also carried in one or more coating layer(s) on the surface of the extruded solid body. 10-95% by weight of at least one binder/matrix component; 5-90% by weight of a zeolitic molecular sieve, a non-zeolitic molecular sieve or a mixture of any two or more thereof; and 0-80% by weight optionally stabilised ceria, which catalyst comprising at least one metal, wherein: (i) the at least one metal is present throughout the extruded solid body and is also present in a higher concentration at a surface of the extruded solid body; (ii) the at least one metal is present throughout the extruded solid body and is also carried in one or more coating layer(s) on a surface of the extruded solid body; or (iii) the at least one metal is present throughout the extruded solid body, is present in a higher concentration at a surface of the extruded solid body and is also carried in one or more coating layer(s) on the surface of the extruded solid body. (i) the at least one metal is present throughout the extruded solid body and is also present in a higher concentration at a surface of the extruded solid body; (ii) the at least one metal is present throughout the extruded solid body and is also carried in one or more coating layer(s) on a surface of the extruded solid body; or (iii) the at least one metal is present throughout the extruded solid body, is present in a higher concentration at a surface of the extruded solid body and is also carried in one or more coating layer(s) on the surface of the extruded solid body.
A portable electronic apparatus comprising: a main body comprising a top surface on which a keypad is exposed and a bottom surface disposed opposite to the top surface; a display unit that is hinge-connected to the main body to rotate by 360 degrees, and comprises a front surface to display images and a rear surface disposed opposite to the top surface; a position fixing unit that fixes the main body and the display unit at a first position where the top surface of the main body and the front surface of the display unit are in contact with each other and at a second position where the bottom surface of the main body and the rear surface of the display unit are in contact with each other by using a magnetic force; and a detecting sensor provided in at least one of the main body and the display unit to detect a magnetic field of the position fixing unit; and a control unit provided in the main body to control an operation of the portable electronic apparatus, wherein when the detecting sensor detects the magnetic field, the control unit controls the portable electronic apparatus to perform at least one of turning off the keypad, mirroring with another display apparatus, and pre-set applications. a main body comprising a top surface on which a keypad is exposed and a bottom surface disposed opposite to the top surface; a display unit that is hinge-connected to the main body to rotate by 360 degrees, and comprises a front surface to display images and a rear surface disposed opposite to the top surface; a position fixing unit that fixes the main body and the display unit at a first position where the top surface of the main body and the front surface of the display unit are in contact with each other and at a second position where the bottom surface of the main body and the rear surface of the display unit are in contact with each other by using a magnetic force; and a detecting sensor provided in at least one of the main body and the display unit to detect a magnetic field of the position fixing unit; and a control unit provided in the main body to control an operation of the portable electronic apparatus,
A service processing method, comprising: receiving, by an access network device from a core network device, a bearer setup request message of a voice over long term evolution, VoLTE, service of a calling terminal; determining, by the access network device, that the calling terminal is in a weak coverage area of the access network device; sending, by the access network device through the core network device, a cause value for the bearer setup failure of the VoLTE service to a calling proxy-call session control function, P-CSCF, wherein the cause value is a radio resources not available indication, and the cause value triggers the calling P-CSCF to instruct the calling terminal to initiate a call in the 2/3G circuit switched domain. receiving, by an access network device from a core network device, a bearer setup request message of a voice over long term evolution, VoLTE, service of a calling terminal; determining, by the access network device, that the calling terminal is in a weak coverage area of the access network device; sending, by the access network device through the core network device, a cause value for the bearer setup failure of the VoLTE service to a calling proxy-call session control function, P-CSCF, wherein the cause value is a radio resources not available indication, and the cause value triggers the calling P-CSCF to instruct the calling terminal to initiate a call in the 2/3G circuit switched domain.
An incineration plant with a firing system, a device for the recirculation of incineration residues (27, 28) into the firing system, a device (33, 34) for measuring at least one parameter of the incineration, a device for influencing the incineration (36, 37) and a device which acts on the quantity of the recirculated incineration residues, characterised in that the device which acts on the quantity of the recirculated incineration residues controls a conveying device which varies the recirculated volume flow.
A stacked transistor RF switch apparatus, comprising: a) a transistor stack having a multiplicity of constituent transistors all coupled in series connection drain to source to form a series string for which internal nodes (502, 602) are those between adjacent transistors, wherein the transistor stack further comprises a first endnode and a second endnode; and b) at least one discrete physical capacitor element Ccomp coupled between an internal node and a parasitic drain capacitance (Cpd) of the series string of the stack, Ccomp having an impedance that is predominantly capacitive at primary frequencies of signals ordinarily controlled by the RF switch; wherein the parasitic drain capacitance (Cpd) is coupled between a particular internal node of a particular constituent transistor and a first alternative node (202, 204, 602), the first alternative node (202, 204, 602) being either another internal node or an endnode (202, 204), and wherein a discrete physical capacitor element Ccomp among the at least one discrete physical capacitor element Ccomp is coupled between the particular internal node of the particular constituent transistor and a second alternative node (202, 204, 602), characterised by the second alternative node (202, 204, 602) being either an internal node of a constituent transistor non-adjacent to the particular constituent transistor or an endnode (202, 204) connected to a constituent transistor non-adjacent to the particular constituent transistor. a) a transistor stack having a multiplicity of constituent transistors all coupled in series connection drain to source to form a series string for which internal nodes (502, 602) are those between adjacent transistors, wherein the transistor stack further comprises a first endnode and a second endnode; and b) at least one discrete physical capacitor element Ccomp coupled between an internal node and a parasitic drain capacitance (Cpd) of the series string of the stack, Ccomp having an impedance that is predominantly capacitive at primary frequencies of signals ordinarily controlled by the RF switch;
A medical device system, comprising: an elongate shaft having a lumen extending from a proximal end of the elongate shaft to a distal end of the elongate shaft; at least one slot extending from an inner surface to an outer surface of the elongate shaft adjacent to the proximal end of the elongate shaft; a release wire disposed within the lumen of the elongate shaft, wherein the release wire is configured to releasably attach a medical device to the distal end of the elongate shaft; and a securement member having a proximal portion and a distal portion, the proximal portion fixedly secured to a proximal end of the release wire and the distal portion having at least one clip movable between an expanded configuration and a compressed configuration and releasably coupled within the at least one slot of the elongate shaft; wherein the securement member is configured to translate proximally away from the proximal end of the elongate shaft upon application of a proximally-directed force to the proximal portion of the securement member and upon movement of the at least one clip to the compressed configuration while the elongate shaft is maintained in a fixed position. an elongate shaft having a lumen extending from a proximal end of the elongate shaft to a distal end of the elongate shaft; at least one slot extending from an inner surface to an outer surface of the elongate shaft adjacent to the proximal end of the elongate shaft; a release wire disposed within the lumen of the elongate shaft, wherein the release wire is configured to releasably attach a medical device to the distal end of the elongate shaft; and a securement member having a proximal portion and a distal portion, the proximal portion fixedly secured to a proximal end of the release wire and the distal portion having at least one clip movable between an expanded configuration and a compressed configuration and releasably coupled within the at least one slot of the elongate shaft; wherein the securement member is configured to translate proximally away from the proximal end of the elongate shaft upon application of a proximally-directed force to the proximal portion of the securement member and upon movement of the at least one clip to the compressed configuration while the elongate shaft is maintained in a fixed position.
A catheter, comprising: a first tubular member comprising a first polymer; and a second tubular member joined to the first tubular member, the second tubular member comprising a second polymer having at least one of a higher melting temperature and a lower cooling temperature than the first polymer, wherein the cooling temperature is the temperature at which the polymer materials begin to solidify after heating and wherein a junction between the first and second tubular members (10, 20) is configured such that the second tubular member overlaps the first tubular member and a proximal end of the second tubular member defines a point at which the first and second tubular members (10, 20) separate upon the application of a tension above a predetermined threshold. a first tubular member comprising a first polymer; and a second tubular member joined to the first tubular member, the second tubular member comprising a second polymer having at least one of a higher melting temperature and a lower cooling temperature than the first polymer, wherein the cooling temperature is the temperature at which the polymer materials begin to solidify after heating and wherein a junction between the first and second tubular members (10, 20) is configured such that the second tubular member overlaps the first tubular member and a proximal end of the second tubular member defines a point at which the first and second tubular members (10, 20) separate upon the application of a tension above a predetermined threshold.
An FcyRIIa protein comprising at least amino acid residues from glutamine at position 29 to glutamine at position 201 of the amino acid sequence set forth in SEQ ID NO: 2, provided the FcyRIIa protein has a substitution of leucine to serine at position 190 of SEQ ID NO: 2, and amino acid substitutions at the 6 positions indicated below: a substitution of isoleucine to valine at position 68 of SEQ ID NO: 2, a substitution of histidine to glutamine at position 80 of SEQ ID NO: 2, a substitution of serine to threonine at position 84 of SEQ ID NO: 2, a substitution of asparagine to threonine at position 90 of SEQ ID NO: 2, a substitution of asparagine to serine at position 91 of SEQ ID NO: 2, a substitution of histidine to arginine at position 125 of SEQ ID NO: 2. a substitution of isoleucine to valine at position 68 of SEQ ID NO: 2, a substitution of histidine to glutamine at position 80 of SEQ ID NO: 2, a substitution of serine to threonine at position 84 of SEQ ID NO: 2, a substitution of asparagine to threonine at position 90 of SEQ ID NO: 2, a substitution of asparagine to serine at position 91 of SEQ ID NO: 2, a substitution of histidine to arginine at position 125 of SEQ ID NO: 2.