mhurhangee/ep-ind-claims huggingface dataset:
A method for charging blast furnace raw material into a blast furnace, the method comprising charging blast furnace raw material including coke and ore material into the blast furnace using a rotating chute, characterized in that the method further comprises: sequentially forming layers inside the blast furnace from the bottom to the top, each of which consists of a central coke layer and a mixed layer of the coke and the ore material, wherein the central coke layer is formed at a shaft central portion of the blast furnace and the mixed layer is formed on the outside of the central coke layer with a coke mixing ratio varying in a stepwise manner in the blast furnace radial direction.
A cleaning apparatus for a cartridge chamber of artillery, comprising: a rotary member 100 having a power supply part 120 mounted thereinto and a motor 130 rotated by receiving the power from the power supply part 120; a cleaning member 200 having a rotary body 210 operated cooperatively with the rotation of the motor 130, slant cleaning parts 220 coupled slantly to the front portion of the outer periphery of the rotary body 210, and parallel cleaning parts 230 coupled to the rear portion of the outer periphery of the rotary body 210 in such a manner as to have both ends parallel with each other; and a handle member 300 coupled to the rear portion of the rotary member 100 in such a manner as to be adjusted in length in a telescoping manner, wherein each slant cleaning part 220 comprises a slant case 222 coupled slantly to the rotary body 210, slant springs 224 mounted inside the slant case 222, and slant brushes 226 coupled in compressed and released manners to the slant springs 224, wherein each parallel cleaning part 230 comprises a parallel case 232 coupled in parallel to the rotary body 210, parallel springs 234 mounted inside the parallel case 232, and parallel brushes 236 coupled in compressed and released manners to the parallel springs 234, whereby the cleaning apparatus is capable of at the same time cleaning the slant portion and the parallel portion formed on the internal peripheral surface of the cartridge chamber. a rotary member 100 having a power supply part 120 mounted thereinto and a motor 130 rotated by receiving the power from the power supply part 120; a cleaning member 200 having a rotary body 210 operated cooperatively with the rotation of the motor 130, slant cleaning parts 220 coupled slantly to the front portion of the outer periphery of the rotary body 210, and parallel cleaning parts 230 coupled to the rear portion of the outer periphery of the rotary body 210 in such a manner as to have both ends parallel with each other; and a handle member 300 coupled to the rear portion of the rotary member 100 in such a manner as to be adjusted in length in a telescoping manner, wherein each slant cleaning part 220 comprises a slant case 222 coupled slantly to the rotary body 210, slant springs 224 mounted inside the slant case 222, and slant brushes 226 coupled in compressed and released manners to the slant springs 224, wherein each parallel cleaning part 230 comprises a parallel case 232 coupled in parallel to the rotary body 210, parallel springs 234 mounted inside the parallel case 232, and parallel brushes 236 coupled in compressed and released manners to the parallel springs 234, whereby the cleaning apparatus is capable of at the same time cleaning the slant portion and the parallel portion formed on the internal peripheral surface of the cartridge chamber.
A vibrating element meter for meter health verification, the vibrating element meter comprising: a sensor assembly including a vibrating member, a pickoff/detection sensor, and a driver configured to vibrate the vibrating member; at least one temperature sensor; and meter electronics coupled to the pickoff/detection sensor, the driver, and the at least one temperature sensor, with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor and a plurality of sensor time periods using the pickoff/detection sensor of the sensor assembly, the meter electronics being characterized by being further configured to: determine an average temperature from the plurality of temperatures; determine an average sensor time period from the plurality of sensor time periods; receive an altitude; compensate the average sensor time period using the average temperature and the altitude to generate a compensated sensor time period; compare the compensated sensor time period to a reference sensor time period; indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period. a sensor assembly including a vibrating member, a pickoff/detection sensor, and a driver configured to vibrate the vibrating member; at least one temperature sensor; and meter electronics coupled to the pickoff/detection sensor, the driver, and the at least one temperature sensor, with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor and a plurality of sensor time periods using the pickoff/detection sensor of the sensor assembly, the meter electronics being characterized by being further configured to: determine an average temperature from the plurality of temperatures; determine an average sensor time period from the plurality of sensor time periods; receive an altitude; compensate the average sensor time period using the average temperature and the altitude to generate a compensated sensor time period; compare the compensated sensor time period to a reference sensor time period; indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period. determine an average temperature from the plurality of temperatures; determine an average sensor time period from the plurality of sensor time periods; receive an altitude; compensate the average sensor time period using the average temperature and the altitude to generate a compensated sensor time period; compare the compensated sensor time period to a reference sensor time period; indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period.
An Internet-of-Vehicles based traffic scheduling method, comprising acquiring, according to received target traffic, a service identifier contained in the target traffic, the target traffic comprising terminal traffic and/or vehicle traffic; querying a local cache according to the service identifier to determine whether there is traffic guiding information corresponding to the service identifier or not, the traffic guiding information comprising a corresponding relationship between a service identifier and a traffic scheduling policy, the traffic scheduling policy being configured for scheduling terminal traffic and vehicle traffic belonging to a same user to a same fixed availability zone for processing; if there is no traffic guiding information corresponding to the service identifier, querying, according to the service identifier, basic data information related to the service identifier, the basic data information being configured for describing other information associated with the service identifier; and matching the basic data information with at least one candidate traffic scheduling policy to determine a target traffic scheduling policy from the at least one candidate traffic scheduling policy, so as to schedule the target traffic to a corresponding availability zone for processing according to the target traffic scheduling policy. acquiring, according to received target traffic, a service identifier contained in the target traffic, the target traffic comprising terminal traffic and/or vehicle traffic; querying a local cache according to the service identifier to determine whether there is traffic guiding information corresponding to the service identifier or not, the traffic guiding information comprising a corresponding relationship between a service identifier and a traffic scheduling policy, the traffic scheduling policy being configured for scheduling terminal traffic and vehicle traffic belonging to a same user to a same fixed availability zone for processing; if there is no traffic guiding information corresponding to the service identifier, querying, according to the service identifier, basic data information related to the service identifier, the basic data information being configured for describing other information associated with the service identifier; and matching the basic data information with at least one candidate traffic scheduling policy to determine a target traffic scheduling policy from the at least one candidate traffic scheduling policy, so as to schedule the target traffic to a corresponding availability zone for processing according to the target traffic scheduling policy.
A wound treatment apparatus comprising: a wound dressing comprising: a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a fluidic connector configured to provide negative pressure to the wound dressing through the aperture in the cover layer; and a three-dimensional filter element configured to prevent wound exudate from exiting the wound dressing through the aperture of the cover layer when negative pressure is provided to the wound dressing wherein the filter element is impermeable to liquids, but permeable to gases, wherein the three-dimensional filter element has a thickness greater than 1mm. a wound dressing comprising: a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a cover layer comprising an aperture; and an absorbent layer positioned beneath the cover layer, the absorbent layer having a thickness; a fluidic connector configured to provide negative pressure to the wound dressing through the aperture in the cover layer; and a three-dimensional filter element configured to prevent wound exudate from exiting the wound dressing through the aperture of the cover layer when negative pressure is provided to the wound dressing wherein the filter element is impermeable to liquids, but permeable to gases, wherein the three-dimensional filter element has a thickness greater than 1mm.
A method for providing an augmented view of a real world scenery and of an occluded subsurface infrastructure, comprising: o taking at least one image of the real world scenery by a camera with an image sensor, o providing image reference information to the at least one image, wherein the image reference information is comprising a camera position and a camera orientation in the real world scenery at the time of taking the at least one image, o providing three dimensional information of a subsurface infrastructure, and o deriving from the three dimensional information of the subsurface infrastructure a two dimensional projection to the image sensor, wherein the two dimensional projection is made by using the reference information of the at least one image, and adding or combining the two dimensional projection to the image, characterized in that a projection position of a two dimensional anchor element projection of at least one anchor element of the subsurface infrastructure being visible on the at least one image of the real world scenery is compared with an image position of the anchor element image of the anchor element on the at least one image, wherein a difference between the image position and the projection position of the same anchor element is compensated for matching and overlaying the two dimensional projection derived from the three dimensional information of the subsurface infrastructure with the at least one image and thereby providing an improved augmented view. o taking at least one image of the real world scenery by a camera with an image sensor, o providing image reference information to the at least one image, wherein the image reference information is comprising a camera position and a camera orientation in the real world scenery at the time of taking the at least one image, o providing three dimensional information of a subsurface infrastructure, and o deriving from the three dimensional information of the subsurface infrastructure a two dimensional projection to the image sensor, wherein the two dimensional projection is made by using the reference information of the at least one image, and adding or combining the two dimensional projection to the image, a projection position of a two dimensional anchor element projection of at least one anchor element of the subsurface infrastructure being visible on the at least one image of the real world scenery is compared with an image position of the anchor element image of the anchor element on the at least one image, wherein a difference between the image position and the projection position of the same anchor element is compensated for matching and overlaying the two dimensional projection derived from the three dimensional information of the subsurface infrastructure with the at least one image and thereby providing an improved augmented view.
A floor guide for single-track or multi-track sliding doors, comprising a guide channel for rails, a central bar for a floor support for laying down a strip-shaped floor covering, wherein the central bar is designed to be detachably connectable to the bottom of the guide channel, characterized in that the central bar is formed in two parts, and a left and a right element of the central bar are formed so as to be able, each individually, to be locked at the bottom of the guide channel into lateral guide means at the bottom of the guide channel. wherein the central bar is designed to be detachably connectable to the bottom of the guide channel, characterized in that the central bar is formed in two parts, and a left and a right element of the central bar are formed so as to be able, each individually, to be locked at the bottom of the guide channel into lateral guide means at the bottom of the guide channel.
A staple cartridge assembly (40, 66, 92) for use with a surgical stapler (10, 50, 80), comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material formed of a fiber matrix and releasably retained on the cartridge body and configured to be delivered to colon tissue by deployment of the staples in the cartridge body to form at least one line of deployed staples; and an effective amount of at least one medicant (148, 160, 164, 168), the at least one medicant being disposed within and releasable from the adjunct material, and the at least one medicant being effective to encourage an effect on blood vessels along the at least one line of deployed staples; wherein the adjunct material includes first and second portions each having different configurations and characterised in that the second portion is configured to detach from the first portion following deployment of the staples. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material formed of a fiber matrix and releasably retained on the cartridge body and configured to be delivered to colon tissue by deployment of the staples in the cartridge body to form at least one line of deployed staples; and an effective amount of at least one medicant (148, 160, 164, 168), the at least one medicant being disposed within and releasable from the adjunct material, and the at least one medicant being effective to encourage an effect on blood vessels along the at least one line of deployed staples; wherein the adjunct material includes first and second portions each having different configurations and characterised in that the second portion is configured to detach from the first portion following deployment of the staples.
An apparatus configured for optical imaging of Cerenkov luminescence from a region of interest on a subject subsequent to the subject receiving a dose of a radiopharmaceutical, the apparatus comprising: an imaging means capable of imaging Cerenkov photons; a fibrescope for transmitting light received at a distal end of the fibrescope to a proximal end of the fibrescope, the proximal end of the fibrescope being connected to the imaging means; characterised in that it further comprises, an optical shroud surrounding the distal end of the fibrescope and covering, when in use, said region of interest, wherein the optical shroud is capable of at least substantially blocking the passage of ambient fight. an imaging means capable of imaging Cerenkov photons; a fibrescope for transmitting light received at a distal end of the fibrescope to a proximal end of the fibrescope, the proximal end of the fibrescope being connected to the imaging means; characterised in that it further comprises, an optical shroud surrounding the distal end of the fibrescope and covering, when in use, said region of interest, wherein the optical shroud is capable of at least substantially blocking the passage of ambient fight.
An anti-VEGF antibody or an anti-VEGF binding fragment of an antibody which comprises six CDRs that have one or more amino acid substitutions or combinations of amino acid substitutions compared to a reference anti-VEGF antibody or a reference anti-VEGF antigen binding fragment that has CDRs having amino acid sequences corresponding to SEQ ID NO:3 (CDR-H1), SEQ ID NO:4 (CDR-H2), SEQ ID NO:5 (CDR-H3), SEQ ID NO:6 (CDR-L1), SEQ ID NO:7 (CDR-L2) and SEQ ID NO:8 (CDR-L3), wherein said one or more amino acid substitutions or combinations of amino acid substitutions are selected from: (i) the CDR-H2 substitution K64S; (ii) the CDR-H2 substitution K64Q; (iii) the CDR-H2 substitutions Y53F and K64Q; (iv) the CDR-H2 substitutions Y53F and K64S; (v) the CDR-H3 substitution H97E; (vi) the CDR-H3 substitution Y98F; (vii) the CDR-H3 substitutions H97E and Y98F; (viii) the CDR-H3 substitutions H97P and Y98F; and optionally the CDR-L2 substitution T51A, wherein the amino acid substitutions are numbered according to Kabat. (i) the CDR-H2 substitution K64S; (ii) the CDR-H2 substitution K64Q; (iii) the CDR-H2 substitutions Y53F and K64Q; (iv) the CDR-H2 substitutions Y53F and K64S; (v) the CDR-H3 substitution H97E; (vi) the CDR-H3 substitution Y98F; (vii) the CDR-H3 substitutions H97E and Y98F; (viii) the CDR-H3 substitutions H97P and Y98F;
A lubrication system for a gas turbine engine comprising: an actuator system; a lubricant distribution system; and a variable output lubricant pump operable to supply lubricant to said actuator system and to said lubricant distribution system, characterised by a scavenge system in fluid communication with said lubricant distribution system, wherein said scavenge system includes a centrifugal air/lubricant separator selectively driven by a motor; and wherein said motor is operated to minimize a residence time within a lubricant tank downstream of said centrifugal air/lubricant separator. an actuator system; a lubricant distribution system; and a variable output lubricant pump operable to supply lubricant to said actuator system and to said lubricant distribution system, characterised by a scavenge system in fluid communication with said lubricant distribution system, wherein said scavenge system includes a centrifugal air/lubricant separator selectively driven by a motor; and wherein said motor is operated to minimize a residence time within a lubricant tank downstream of said centrifugal air/lubricant separator.
An imaging agent comprising a 18 F labeled derivative of Formula II wherein; R 2 is a singularly occuring 18 F; and n is equal to 5. R 2 is a singularly occuring 18 F; and n is equal to 5.
A support structure for use in an external fixator assembly, said support structure comprising: a base having a closed annular configuration and dimensioned for operative disposition in at least partially surrounding relation to a leg area of an individual, an extension assembly connected to said base and extending outwardly therefrom, said extension assembly comprises a plurality of elongated extension members (112, 114), wherein two of said elongated extension members (112, 114) are connected to opposite sides of said base and extend outwardly from said base in a substantially common direction, wherein said two elongated extension members (112, 114) are disposed in parallel, coplanar relation to one another and said base, and are each structured for connection to at least one strut and disposition of the one strut in interconnecting relation to a remainder of the external fixator assembly; and said base structured for connection to at least one strut along a length of said base. a base having a closed annular configuration and dimensioned for operative disposition in at least partially surrounding relation to a leg area of an individual, an extension assembly connected to said base and extending outwardly therefrom, said extension assembly comprises a plurality of elongated extension members (112, 114), wherein two of said elongated extension members (112, 114) are connected to opposite sides of said base and extend outwardly from said base in a substantially common direction, wherein said two elongated extension members (112, 114) are disposed in parallel, coplanar relation to one another and said base, and are each structured for connection to at least one strut and disposition of the one strut in interconnecting relation to a remainder of the external fixator assembly; and said base structured for connection to at least one strut along a length of said base.