mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a fan ; a compressor section ; a combustor ; a turbine section aft of the combustor ; a single-piece outer engine case including a combustor case portion to surround at least a portion of said combustor , and a turbine case portion to surround at least a portion of said turbine section ; and a transition duct/mid-turbine frame case portion that is integrally formed with said combustor case portion and said turbine case portion as a single-piece case module to form said single-piece outer engine case , wherein said single-piece outer engine case has a foremost end and an aftmost end , and includes a diffuser case mounted to said foremost end and a low pressure turbine case mounted to said aftmost end, and said compressor section includes a high pressure compressor section having a compressor case module that is attached to said foremost end of said single-piece outer engine case , wherein said single-piece case module has at least one continuous and uninterrupted outer surface portion that extends from a fore edge of said combustor case portion located at the foremost end , along said turbine case section and then to an opposing aft edge of said transition duct/mid-turbine frame case portion located at the aftmost end . a fan ; a compressor section ; a combustor ; a turbine section aft of the combustor ; a single-piece outer engine case including a combustor case portion to surround at least a portion of said combustor , and a turbine case portion to surround at least a portion of said turbine section ; and a transition duct/mid-turbine frame case portion that is integrally formed with said combustor case portion and said turbine case portion as a single-piece case module to form said single-piece outer engine case , wherein said single-piece outer engine case has a foremost end and an aftmost end , and includes a diffuser case mounted to said foremost end and a low pressure turbine case mounted to said aftmost end, and said compressor section includes a high pressure compressor section having a compressor case module that is attached to said foremost end of said single-piece outer engine case , wherein said single-piece case module has at least one continuous and uninterrupted outer surface portion that extends from a fore edge of said combustor case portion located at the foremost end , along said turbine case section and then to an opposing aft edge of said transition duct/mid-turbine frame case portion located at the aftmost end .
A system for dynamic configuration of a virtual keyboard, comprising: an electronic display configured to display a virtual keyboard , wherein the virtual keyboard comprises a plurality of keys ; and a processor communicatively coupled to the electronic display and configured to: receive a first string of erased characters ; receive a second string of replacement characters ; compare the first string and the second string to determine a difference at corresponding character locations of the first string and the second string ; increment a counter based on the difference, wherein the counter corresponds to the difference at the corresponding character locations of the first string and the second string; adjust at least one of the plurality of keys of the virtual keyboard based on the counter meeting a threshold; and reset the counter based on the counter meeting the threshold. an electronic display configured to display a virtual keyboard , wherein the virtual keyboard comprises a plurality of keys ; and a processor communicatively coupled to the electronic display and configured to: receive a first string of erased characters ; receive a second string of replacement characters ; compare the first string and the second string to determine a difference at corresponding character locations of the first string and the second string ; increment a counter based on the difference, wherein the counter corresponds to the difference at the corresponding character locations of the first string and the second string; adjust at least one of the plurality of keys of the virtual keyboard based on the counter meeting a threshold; and reset the counter based on the counter meeting the threshold. receive a first string of erased characters ; receive a second string of replacement characters ; compare the first string and the second string to determine a difference at corresponding character locations of the first string and the second string ; increment a counter based on the difference, wherein the counter corresponds to the difference at the corresponding character locations of the first string and the second string; adjust at least one of the plurality of keys of the virtual keyboard based on the counter meeting a threshold; and reset the counter based on the counter meeting the threshold.
A method for detection of counterfeit and cyber electronic components, comprising: obtaining one or more features from a plurality of electronic components of a first type and from a plurality of electronic components of a second type ; processing the one or more features to create a unique model related to an electronic component of the first type and to an electronic component of the second type; examining a detected electronic component by obtaining one or more features of the detected electronic component; executing the unique model with the one or more features of the detected electronic component; determining if the detected electronic component is an authentic electronic component of the first type or the second type; and characterized by compiling quality related features of the one or more features to a quality index determining whether the component can be used in production, wherein the quality index compiles the output of the unique model for authentic components and classifies components with different types of faults. obtaining one or more features from a plurality of electronic components of a first type and from a plurality of electronic components of a second type ; processing the one or more features to create a unique model related to an electronic component of the first type and to an electronic component of the second type; examining a detected electronic component by obtaining one or more features of the detected electronic component; executing the unique model with the one or more features of the detected electronic component; determining if the detected electronic component is an authentic electronic component of the first type or the second type; and characterized by compiling quality related features of the one or more features to a quality index determining whether the component can be used in production, wherein the quality index compiles the output of the unique model for authentic components and classifies components with different types of faults.
An adapter attachable to a package (P1) having a yarn (Y) made of synthetic fibers, comprising: an attachment portion which is attachable to a bobbin (B1) of the package (P1) so as to be rotatable in a synchronization manner; a first holding unit which is provided in the attachment portion and is adapted to hold a yarn end of a yarn on an outer layer side of the package (P1); and a second holding unit which is provided in the attachment portion and is adapted to hold a yarn end of a yarn on an inner layer side of the package (P1), characterized in that the attachment portion includes an annular outer ring portion (llx) which is adapted to cover an outer peripheral surface of the bobbin (B1) with a gap therebetween, and wherein the yarn on the inner layer side of the package (P1) is windable on the outer ring portion. an attachment portion which is attachable to a bobbin (B1) of the package (P1) so as to be rotatable in a synchronization manner; a first holding unit which is provided in the attachment portion and is adapted to hold a yarn end of a yarn on an outer layer side of the package (P1); and a second holding unit which is provided in the attachment portion and is adapted to hold a yarn end of a yarn on an inner layer side of the package (P1), characterized in that the attachment portion includes an annular outer ring portion (llx) which is adapted to cover an outer peripheral surface of the bobbin (B1) with a gap therebetween, and wherein the yarn on the inner layer side of the package (P1) is windable on the outer ring portion.
A method performed by a User Equipment, UE, the UE having a Packet Data Convergence Protocol, PDCP, entity associated with two Radio Link Control, RLC, entities, the PDCP entity being configured with a duplication function, and the duplication function being not activated, and the method comprising: determining , by the PDCP entity, whether the two RLC entities belong to a same cell group; submitting , by the PDCP entity, a PDCP Data Protocol Data Unit, PDU, to a primary RLC entity of the two RLC entities, when the two RLC entities belong to a same cell group; and when the two RLC entities belong to different cell groups, performing operations comprising: submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold. determining , by the PDCP entity, whether the two RLC entities belong to a same cell group; submitting , by the PDCP entity, a PDCP Data Protocol Data Unit, PDU, to a primary RLC entity of the two RLC entities, when the two RLC entities belong to a same cell group; and when the two RLC entities belong to different cell groups, performing operations comprising: submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold. submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold.
Reflective optical element for EUV lithography, comprising a substrate and a reflective coating for reflecting radiation in the wavelength range of 5 nm to 20 nm, characterized in that a functional layer , by means of which functional layer the concentration of hydrogen in atom% at the side of the substrate facing the reflective coating is reduced by at least a factor of 2, and a microstructured layer are arranged between the reflective coating and the substrate and a polishing layer is arranged on the functional layer or the microstructured layer and an adhesion promoter layer is arranged on the substrate, said adhesion promoter layer consisting of at least one ply and comprising one or more materials of the group consisting of ruthenium, chromium, platinum, iridium, copper, silver, gold, nickel, nickel-phosphorus, tantalum, titanium, zirconium, tungsten, molybdenum and niobium.
An illumination system (700A-B) configured to render images in a mixed-reality system by individually scanning individual pixels of said rendered images, the illumination system comprising: a laser assembly configured to include red, green and blue RGB lasers (710A-C); a microelectromechanical scanning, MEMS, mirror system configured to redirect laser light generated by the laser assembly to illuminate pixels in an image frame for the mixed-reality system; a beam combiner (245; 275) configured to combine the laser light generated by the laser assembly; one or more collimating optics (240A, 240B; 270; 290) configured to collimate the laser light generated by the laser assembly; and a reflective photodiode (215; 255; 280; 310) comprising: a light receiving surface (225; 320) configured to absorb a first portion of incoming light (230; 325) directed at the reflective photodiode and to convert the first portion of incoming light into electrical current; and a reflective coating (220; 315) disposed on the light receiving surface, wherein the reflective coating is configured to reflect a second portion of the incoming light away from the light receiving surface towards the MEMS mirror system while permitting the first portion of the incoming light to pass through the reflective coating and to be absorbed by the light receiving surface. a laser assembly configured to include red, green and blue RGB lasers (710A-C); a microelectromechanical scanning, MEMS, mirror system configured to redirect laser light generated by the laser assembly to illuminate pixels in an image frame for the mixed-reality system; a beam combiner (245; 275) configured to combine the laser light generated by the laser assembly; one or more collimating optics (240A, 240B; 270; 290) configured to collimate the laser light generated by the laser assembly; and a reflective photodiode (215; 255; 280; 310) comprising: a light receiving surface (225; 320) configured to absorb a first portion of incoming light (230; 325) directed at the reflective photodiode and to convert the first portion of incoming light into electrical current; and a reflective coating (220; 315) disposed on the light receiving surface, wherein the reflective coating is configured to reflect a second portion of the incoming light away from the light receiving surface towards the MEMS mirror system while permitting the first portion of the incoming light to pass through the reflective coating and to be absorbed by the light receiving surface. a light receiving surface (225; 320) configured to absorb a first portion of incoming light (230; 325) directed at the reflective photodiode and to convert the first portion of incoming light into electrical current; and a reflective coating (220; 315) disposed on the light receiving surface, wherein the reflective coating is configured to reflect a second portion of the incoming light away from the light receiving surface towards the MEMS mirror system while permitting the first portion of the incoming light to pass through the reflective coating and to be absorbed by the light receiving surface.
A working machine comprising: a traveling device to change a traveling speed in accordance with a flow rate of an operation fluid; a traveling operation device to change the flow rate of the operation fluid to be supplied to the traveling device ; a switching operation portion to change, at multiple steps, a supply amount of the operation fluid to be supplied to the traveling device , the supply amount corresponding to an operation extent of the traveling operation device , a working device ; and a working operation device to operate the working device and to be gripped in being operated, wherein the switching operation portion is arranged in the working operation device , wherein the working operation device includes: a first working operation device arranged on one side of an operator seat ; and a second working operation device arranged on the other side of an operator seat , wherein the switching operation portion includes: a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up. a traveling device to change a traveling speed in accordance with a flow rate of an operation fluid; a traveling operation device to change the flow rate of the operation fluid to be supplied to the traveling device ; a switching operation portion to change, at multiple steps, a supply amount of the operation fluid to be supplied to the traveling device , the supply amount corresponding to an operation extent of the traveling operation device , a working device ; and a working operation device to operate the working device and to be gripped in being operated, wherein the switching operation portion is arranged in the working operation device , wherein the working operation device includes: a first working operation device arranged on one side of an operator seat ; and a second working operation device arranged on the other side of an operator seat , a first working operation device arranged on one side of an operator seat ; and a second working operation device arranged on the other side of an operator seat , wherein the switching operation portion includes: a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up. a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up.
A process for preparation of Ixazomib Citrate comprising a) providing citric acid, a suitable ketone, optionally one or more solvents and compound 2: wherein R1 and R2, taken together with the intervening oxygen and boron atoms, form an optionally substituted 5- to 10-membered ring having 0-2 additional ring heteroatoms selected from N, O, or S, preferably R1 and R2, taken together with the intervening oxygen and boron atoms, form an optionally substituted 5 or 6 membered ring; b) adding a strong acid, preferably HCl, to afford Ixazomib Citrate; and c) optionally isolating Ixazomib Citrate; and wherein the reaction is performed in the absence of an organic boronic acid or boric acid. a) providing citric acid, a suitable ketone, optionally one or more solvents and compound 2: wherein R1 and R2, taken together with the intervening oxygen and boron atoms, form an optionally substituted 5- to 10-membered ring having 0-2 additional ring heteroatoms selected from N, O, or S, preferably R1 and R2, taken together with the intervening oxygen and boron atoms, form an optionally substituted 5 or 6 membered ring; b) adding a strong acid, preferably HCl, to afford Ixazomib Citrate; and c) optionally isolating Ixazomib Citrate; and wherein the reaction is performed in the absence of an organic boronic acid or boric acid.
A method of wireless communication at a user equipment (104; 350; 408) UE, comprising: generating a narrowband physical random access channel, NPRACH, signal comprising multiple repetitions, wherein each repetition comprises multiple symbol groups (504a-d); applying a repetition level scrambling sequence to the NPRACH signal , wherein a single scrambling sequence is applied to a set of repetitions comprised in the NPRACH signal ; and transmitting the NPRACH signal to a base station (102; 310; 402; 406). generating a narrowband physical random access channel, NPRACH, signal comprising multiple repetitions, wherein each repetition comprises multiple symbol groups (504a-d); applying a repetition level scrambling sequence to the NPRACH signal , wherein a single scrambling sequence is applied to a set of repetitions comprised in the NPRACH signal ; and transmitting the NPRACH signal to a base station (102; 310; 402; 406).
A manufacturing method of a solar cell comprising: forming a photoelectric conversion unit; and forming an electrode connected to the photoelectric conversion unit, wherein the step of forming the electrode comprises: forming a seed formation layer connected to the photoelectric conversion unit; forming an anti-oxidation layer on the seed formation layer to prevent oxidation of the seed formation layer; performing a thermal process such that a material of the seed formation layer and a material of the photoelectric conversion unit react with each other to form a chemical bonding layer at a portion at which the seed formation layer and the photoelectric conversion unit are adjacent to each other, after forming of the anti-oxidation layer; forming a conductive layer and a capping layer on the seed formation layer in a state in which a mask is disposed on the seed formation layer; and patterning the seed formation layer and the anti-oxidation layer using the capping layer as a mask. forming a photoelectric conversion unit; and forming an electrode connected to the photoelectric conversion unit, wherein the step of forming the electrode comprises: forming a seed formation layer connected to the photoelectric conversion unit; forming an anti-oxidation layer on the seed formation layer to prevent oxidation of the seed formation layer; performing a thermal process such that a material of the seed formation layer and a material of the photoelectric conversion unit react with each other to form a chemical bonding layer at a portion at which the seed formation layer and the photoelectric conversion unit are adjacent to each other, after forming of the anti-oxidation layer; forming a conductive layer and a capping layer on the seed formation layer in a state in which a mask is disposed on the seed formation layer; and patterning the seed formation layer and the anti-oxidation layer using the capping layer as a mask. forming a seed formation layer connected to the photoelectric conversion unit; forming an anti-oxidation layer on the seed formation layer to prevent oxidation of the seed formation layer; performing a thermal process such that a material of the seed formation layer and a material of the photoelectric conversion unit react with each other to form a chemical bonding layer at a portion at which the seed formation layer and the photoelectric conversion unit are adjacent to each other, after forming of the anti-oxidation layer; forming a conductive layer and a capping layer on the seed formation layer in a state in which a mask is disposed on the seed formation layer; and patterning the seed formation layer and the anti-oxidation layer using the capping layer as a mask.
An intra oral sensor device comprising: a bendable sensor assembly for detecting an X-ray with a sensor panel and generating an electric signal; and a window cover located in front of the sensor panel with respect to a direction of X-ray propagation, and having a base part covering the sensor panel , and side walls protruding from edges of the base part to cover sides of the sensor panel and a plurality of corresponding grooves , wherein the grooves are formed in two opposite side walls of the window cover and have a form such that they vertically extend from the top of the side walls . a bendable sensor assembly for detecting an X-ray with a sensor panel and generating an electric signal; and a window cover located in front of the sensor panel with respect to a direction of X-ray propagation, and having a base part covering the sensor panel , and side walls protruding from edges of the base part to cover sides of the sensor panel and a plurality of corresponding grooves , wherein the grooves are formed in two opposite side walls of the window cover and have a form such that they vertically extend from the top of the side walls .