mhurhangee/ep-ind-claims huggingface dataset:
A method for stripe mapping, comprising: writing data in a number of stripes across a storage volume of a plurality of memory devices (110-1,..., 110-N, 210) according to a first stripe map (120,420), wherein each of the number of stripes (344-1, 344-2,..., 344-P) includes a number of elements; wherein the first stripe map (120,420) includes a number of stripe indexes to identify the number of stripes and a number of element identifiers to identify elements included in each of the number of stripes; the method being characterised by: storing a second stripe map (122, 522), wherein the second stripe map (122, 522) is an inverse stripe map of the first stripe map (120,420); performing a redundant array of independent disks, RAID, read error recovery operation by locating the element identifier of a bad element in the number of stripes in the second stripe map, determining one or more stripes of the number of stripes that include the bad element using the second stripe map, and recovering data of the bad element using parity data and moving the data of the bad element to a different element; and updating the first stripe map to associate the element identifier of the different element with the one or more stripes of the number of stripes. writing data in a number of stripes across a storage volume of a plurality of memory devices (110-1,..., 110-N, 210) according to a first stripe map (120,420), wherein each of the number of stripes (344-1, 344-2,..., 344-P) includes a number of elements; wherein the first stripe map (120,420) includes a number of stripe indexes to identify the number of stripes and a number of element identifiers to identify elements included in each of the number of stripes; the method being characterised by: storing a second stripe map (122, 522), wherein the second stripe map (122, 522) is an inverse stripe map of the first stripe map (120,420); performing a redundant array of independent disks, RAID, read error recovery operation by locating the element identifier of a bad element in the number of stripes in the second stripe map, determining one or more stripes of the number of stripes that include the bad element using the second stripe map, and recovering data of the bad element using parity data and moving the data of the bad element to a different element; and updating the first stripe map to associate the element identifier of the different element with the one or more stripes of the number of stripes. storing a second stripe map (122, 522), wherein the second stripe map (122, 522) is an inverse stripe map of the first stripe map (120,420); performing a redundant array of independent disks, RAID, read error recovery operation by locating the element identifier of a bad element in the number of stripes in the second stripe map, determining one or more stripes of the number of stripes that include the bad element using the second stripe map, and recovering data of the bad element using parity data and moving the data of the bad element to a different element; and updating the first stripe map to associate the element identifier of the different element with the one or more stripes of the number of stripes.
Combined hinge closure (20, 21) for connecting at least two parts (2, 3) characterized in that the closure is composed of a fabric tape (10, 11) which is placed in such a manner that a loop-shaped fabric-tape region (12, 13) results between an upper and a lower end region, - having lateral lugs (4-7, 4'-7'), wherein - in the upper and lower end regions of the second lateral lugs (6, 7, 6', 7') in each case one region on which is fastened a first closure element (14, 14', 15, 15') of a form-fitting connection is incorporated, and - the respective fabric tape (10, 11), at least in one region which adjoins the fastening region of the former, has a second closure element of the form-fitting connection which, together with the first closure element (14, 14', 15, 15'), forms the form-fitting connection. - having lateral lugs (4-7, 4'-7'), wherein - in the upper and lower end regions of the second lateral lugs (6, 7, 6', 7') in each case one region on which is fastened a first closure element (14, 14', 15, 15') of a form-fitting connection is incorporated, and - the respective fabric tape (10, 11), at least in one region which adjoins the fastening region of the former, has a second closure element of the form-fitting connection which, together with the first closure element (14, 14', 15, 15'), forms the form-fitting connection.
A semiaromatic polyamide resin composition comprising: a semiaromatic polyamide, a phosphorus-based flame retardant, an inorganic aluminum compound, and a phosphazene compound, wherein a mass ratio (A/B) between the semiaromatic polyamide and the phosphorus-based flame retardant is 50/50 to 95/5; an amount of the inorganic aluminum compound is 0.1 to 20 parts by mass in relation to 100 parts by mass of a total amount of the semiaromatic polyamide and the phosphorus-based flame retardant; the semiaromatic polyamide is constituted with an aromatic dicarboxylic acid component, an aliphatic diamine component and a monocarboxylic acid component; the monocarboxylic acid component includes a monocarboxylic acid having a molecular weight of 140 or more; and a content of the monocarboxylic acid component is 0.3 to 4.0 mol% in relation to whole monomer components constituting the semiaromatic polyamide.
A lithium cell comprising (i) a negative electrode and a positive electrode that are capable of occluding or releasing lithium ions, (ii) a separator, and (iii) an electrolytic solution comprising: - a nonaqueous solvent; - an electrolyte salt, which electrolyte salt is LiPF 6, and is contained in an amount of ≥ 0.2 mol/l; and - ≥ 10 vol.-%, per 100 vol.-% of the nonaqueous solvent, of a compound of formula wherein R 1 -R 3 each independently is H, F, C 1-20 -alkyl, or C 1-20 -fluoroalkyl, excluding cases where all of R 1 -R 3 are H or all of R 1 -R 3 are F. (i) a negative electrode and a positive electrode that are capable of occluding or releasing lithium ions, (ii) a separator, and (iii) an electrolytic solution comprising: - a nonaqueous solvent; - an electrolyte salt, which electrolyte salt is LiPF 6, and is contained in an amount of ≥ 0.2 mol/l; and - ≥ 10 vol.-%, per 100 vol.-% of the nonaqueous solvent, of a compound of formula wherein R 1 -R 3 each independently is H, F, C 1-20 -alkyl, or C 1-20 -fluoroalkyl, excluding cases where all of R 1 -R 3 are H or all of R 1 -R 3 are F. - a nonaqueous solvent; - an electrolyte salt, which electrolyte salt is LiPF 6, and is contained in an amount of ≥ 0.2 mol/l; and - ≥ 10 vol.-%, per 100 vol.-% of the nonaqueous solvent, of a compound of formula wherein R 1 -R 3 each independently is H, F, C 1-20 -alkyl, or C 1-20 -fluoroalkyl, excluding cases where all of R 1 -R 3 are H or all of R 1 -R 3 are F.
Binder based on a hydroxy-functional acrylate resin A), an alkoxy- and/or silanol-functional polysiloxane B), one or more dicarboxylic or polycarboxylic acids C) and one or more diols or polyols D), the constituents A) to D) being present condensed with one another in the binder, the binder of the invention being composed of 10 to 50 wt% of component B) and 50-90 wt% of a combination of component A) and the polyester component comprising C) and D), based on the solids content of the binders.
A camera and drape assembly (100; 200) for use with a tracking element of a surgical system, said assembly comprising: a camera unit (36; 236) including a casing (38; 238) and an optical sensor supported by said casing (38; 238) for detecting the tracking element; and a drape (102; 202) including a first section (104; 203) having a first elasticity; characterized in that said casing (38; 238) presents a lip (108; 206); and said drape (102; 202) further includes a second section (106; 205) surrounded by said first section (104; 203) and having a second elasticity greater than said first elasticity, wherein said first section (104; 203) is configured to be stretched over said lip (108; 206) so that said second section (106; 205) extends around, is uniformly stretched across and elastically engages said lip (108; 206) thereby supporting said drape (102; 202) over said optical sensor so that said optical sensor is capable of receiving light from the tracking element through said second section (106; 205). a camera unit (36; 236) including a casing (38; 238) and an optical sensor supported by said casing (38; 238) for detecting the tracking element; and a drape (102; 202) including a first section (104; 203) having a first elasticity; characterized in that said casing (38; 238) presents a lip (108; 206); and said drape (102; 202) further includes a second section (106; 205) surrounded by said first section (104; 203) and having a second elasticity greater than said first elasticity, wherein said first section (104; 203) is configured to be stretched over said lip (108; 206) so that said second section (106; 205) extends around, is uniformly stretched across and elastically engages said lip (108; 206) thereby supporting said drape (102; 202) over said optical sensor so that said optical sensor is capable of receiving light from the tracking element through said second section (106; 205).
A method of collecting signal information for use by a user mobile device (305, 1220), comprising: obtaining a plurality of signal reputation data corresponding to a plurality of locations of a collector device; categorizing the plurality of signal reputation data into a plurality of groups; calculating a plurality of signal circles corresponding to at least some of the plurality of groups, based on a representative signal value for the corresponding group; calculating a signal reputation score for each signal circle; determining an intended destination to which the user mobile device (305, 1220) is predicted to travel; determining that a predicted travel path to the intended destination falls within a boundary of a signal circle that is determined to be a dead zone; prefetching a plurality of signal circles within a threshold distance of the travel path and caching the prefetched signal circles for access when the user mobile device (305, 1220) is within a predetermined distance of the dead zone; determining a best signal circle for a user mobile device within the predetermined distance of the dead zone based on a time of day, a mode of travel, a category of the place associated with the best signal circle, and a characteristic of a user of the user mobile device; and sending the best signal circle to the user mobile device (305, 1220) based at least in part on the signal reputation score and a location of the user mobile device (305, 1220). obtaining a plurality of signal reputation data corresponding to a plurality of locations of a collector device; categorizing the plurality of signal reputation data into a plurality of groups; calculating a plurality of signal circles corresponding to at least some of the plurality of groups, based on a representative signal value for the corresponding group; calculating a signal reputation score for each signal circle; determining an intended destination to which the user mobile device (305, 1220) is predicted to travel; determining that a predicted travel path to the intended destination falls within a boundary of a signal circle that is determined to be a dead zone; prefetching a plurality of signal circles within a threshold distance of the travel path and caching the prefetched signal circles for access when the user mobile device (305, 1220) is within a predetermined distance of the dead zone; determining a best signal circle for a user mobile device within the predetermined distance of the dead zone based on a time of day, a mode of travel, a category of the place associated with the best signal circle, and a characteristic of a user of the user mobile device; and sending the best signal circle to the user mobile device (305, 1220) based at least in part on the signal reputation score and a location of the user mobile device (305, 1220).
An image processing apparatus comprising: an acquisition unit that is adapted to acquire a first radiographic image and a second radiographic image respectively generated by a first radiation detector and a second radiation detector which are irradiated with radiation with first energy emitted from a radiation source in preliminary imaging before main imaging from a radiography apparatus including the first and second radiation detectors in which a plurality of pixels, each of which includes a conversion element that generates a larger amount of charge as it is irradiated with a larger amount of radiation which has been emitted from the radiation source and then transmitted through a subject, are arranged and which are arranged in a direction in which the radiation is emitted; characterised in that the apparatus further comprises a derivation unit that is adapted to derive a composition of a soft tissue of the subject, using the first and second radiographic images acquired by the acquisition unit, and wherein said derivation unit is further adapted to derive second energy of the radiation emitted from the radiation source in the main imaging according to the derived composition of the soft tissue. an acquisition unit that is adapted to acquire a first radiographic image and a second radiographic image respectively generated by a first radiation detector and a second radiation detector which are irradiated with radiation with first energy emitted from a radiation source in preliminary imaging before main imaging from a radiography apparatus including the first and second radiation detectors in which a plurality of pixels, each of which includes a conversion element that generates a larger amount of charge as it is irradiated with a larger amount of radiation which has been emitted from the radiation source and then transmitted through a subject, are arranged and which are arranged in a direction in which the radiation is emitted; characterised in that the apparatus further comprises a derivation unit that is adapted to derive a composition of a soft tissue of the subject, using the first and second radiographic images acquired by the acquisition unit, and wherein said derivation unit is further adapted to derive second energy of the radiation emitted from the radiation source in the main imaging according to the derived composition of the soft tissue.
A coal fired Oxy boiler power plant including a condensate system and a CO2 capture system, the condensate system comprising: a pump for pressuring condensate; a plurality of serial low pressure heaters (7, 8, 9, 31) arranged in flow series downstream of the pump and numbered sequentially in a direction of condensate flow; and at least one parallel low pressure heater arranged fluidly parallel to at least one of the serial low pressure heaters (7, 8, 9, 31), the CO2 capture system configured and arranged to remove CO2 from a flue gas stream of the boiler having: a Flue Gas Heat Recovery System having: a Flue Gas Heat Recovery System heat exchanger; and a Flue Gas Heat Recovery System thermal fluid line connected to: the Flue Gas Heat Recovery System heat exchanger; and the at least one parallel low pressure heater, the CO2 capture system having a Gas Processing Unit for separation of CO2 from flue gas having: a Gas Processing Unit heat exchanger; a Gas Processing Unit thermal fluid line connected to: the Gas Processing Unit heat exchanger; and: the at least one parallel low pressure heater, wherein the Flue Gas Heat Recovery System thermal fluid line and the Gas Processing Unit thermal fluid line form a thermal fluid loop, wherein the thermal fluid loop is shared by the Flue Gas Heat Recovery System heat exchanger and the Gas Processing Unit heat exchanger and wherein the thermal fluid loop is connected to the at least one parallel low pressure heater. a pump for pressuring condensate; a plurality of serial low pressure heaters (7, 8, 9, 31) arranged in flow series downstream of the pump and numbered sequentially in a direction of condensate flow; and at least one parallel low pressure heater arranged fluidly parallel to at least one of the serial low pressure heaters (7, 8, 9, 31), a Flue Gas Heat Recovery System heat exchanger; and a Flue Gas Heat Recovery System thermal fluid line connected to: the Flue Gas Heat Recovery System heat exchanger; and the at least one parallel low pressure heater, the Flue Gas Heat Recovery System heat exchanger; and the at least one parallel low pressure heater, a Gas Processing Unit heat exchanger; a Gas Processing Unit thermal fluid line connected to: the Gas Processing Unit heat exchanger; and: the at least one parallel low pressure heater,
A catheter placement assist device comprising: a pair of wings that meet at a valley, each of the wings (4, 6) having a curved profile; a spout protruding from one end of the valley, the spout forming one side of an introital aperture through which a urethral meatus can be optimally viewed; a posterior shield protruding from another end of the valley; wherein the wings (4, 6) overlap one another around the introital aperture before terminating, or form a permanent gap adjacent to the introital aperture before terminating wherein an angle a determined for surface points along the wings (4, 6) by a tangent to each surface point of one of the wings and a midline of the wings (4, 6) increases non-linearly from the spout and valley before decreasing to an outside edge of the one of the wings (4, 6) or wherein an angle a determined for surface points along the wings (4, 6) by a tangent to each surface point of one of the wings and a midline of the wings (4, 6) decreases non-linearly from the spout and valley before increasing and then decreasing to an outside edge of the one of the wings (4, 6). a pair of wings that meet at a valley, each of the wings (4, 6) having a curved profile; a spout protruding from one end of the valley, the spout forming one side of an introital aperture through which a urethral meatus can be optimally viewed; a posterior shield protruding from another end of the valley; wherein the wings (4, 6) overlap one another around the introital aperture before terminating, or form a permanent gap adjacent to the introital aperture before terminating wherein an angle a determined for surface points along the wings (4, 6) by a tangent to each surface point of one of the wings and a midline of the wings (4, 6) increases non-linearly from the spout and valley before decreasing to an outside edge of the one of the wings (4, 6) or wherein an angle a determined for surface points along the wings (4, 6) by a tangent to each surface point of one of the wings and a midline of the wings (4, 6) decreases non-linearly from the spout and valley before increasing and then decreasing to an outside edge of the one of the wings (4, 6).
A light-emitting device comprising: a light source that radiates primary light; and a first phosphor that absorbs the primary light and converts the primary light into first wavelength-converted light having a longer wavelength than the primary light, wherein the primary light is laser light, the first wavelength-converted light includes fluorescence based on electron energy transition of Cr 3+, a fluorescence spectrum of the first wavelength-converted light has a maximum fluorescence intensity value in region of a wavelength exceeding 710 nm, and the light source is a solid-state light-emitting element in which a rated light output is 1 W or more. a light source that radiates primary light; and a first phosphor that absorbs the primary light and converts the primary light into first wavelength-converted light having a longer wavelength than the primary light, wherein the primary light is laser light, the first wavelength-converted light includes fluorescence based on electron energy transition of Cr 3+, a fluorescence spectrum of the first wavelength-converted light has a maximum fluorescence intensity value in region of a wavelength exceeding 710 nm, and the light source is a solid-state light-emitting element in which a rated light output is 1 W or more.
A process for purifying a crude ethanol product obtainable by hydrogenating acetic acid in an acetic acid feed stream in a reactor in the presence of a catalyst, the process comprising the steps of: hydrogenating acetic acid in an acetic acid feed stream in the presence of a catalyst to form a crude ethanol product; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water; optionally separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water; and separating at least a portion of the second distillate in a fourth column into a fourth distillate comprising acetaldehyde and a fourth residue comprising ethyl acetate; feeding the recovered acetaldehyde stream to the reactor; and recovering ethanol from the crude ethanol product. hydrogenating acetic acid in an acetic acid feed stream in the presence of a catalyst to form a crude ethanol product; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water; optionally separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water; and separating at least a portion of the second distillate in a fourth column into a fourth distillate comprising acetaldehyde and a fourth residue comprising ethyl acetate; feeding the recovered acetaldehyde stream to the reactor; and recovering ethanol from the crude ethanol product.