mhurhangee/ep-ind-claims huggingface dataset:
A stabilized solid activated bleach composition comprising: at least one alkaline solidification matrix including alkali metal carbonates and/or alkali metal silicates; an active oxygen source, wherein the active oxygen source is selected from the group consisting of peroxygen compounds, hydrogen peroxide, hydrogen peroxide liberating or generating compounds, inorganic or organic peroxyacids, peroxycarboxylic acids, percarbonates and combinations thereof; a bleach activating agent; and a sequestrant system comprising a phosphonate and/or acid thereof; from 1-15 wt-% of a binding system comprising an anionic surfactant and a cellulose component; wherein no more than 0.5 wt-% of nonionic surfactant is included in the binding system; wherein the solid composition has less than 0.5 wt-% water. at least one alkaline solidification matrix including alkali metal carbonates and/or alkali metal silicates; an active oxygen source, wherein the active oxygen source is selected from the group consisting of peroxygen compounds, hydrogen peroxide, hydrogen peroxide liberating or generating compounds, inorganic or organic peroxyacids, peroxycarboxylic acids, percarbonates and combinations thereof; a bleach activating agent; and a sequestrant system comprising a phosphonate and/or acid thereof; from 1-15 wt-% of a binding system comprising an anionic surfactant and a cellulose component; wherein no more than 0.5 wt-% of nonionic surfactant is included in the binding system; wherein the solid composition has less than 0.5 wt-% water.
A method, comprising steps of: a storage device receiving from a storage device client a data block write request to write a data block to said storage device; wherein said storage device comprises one or more primary storage devices and one or more persistent cache devices; storing, to a persistent cache device of said one or more persistent cache devices, said data block as a cache copy that is a later version of the data block version stored in said one or more primary storage devices; in response to storing said data block to said persistent cache device, transmitting an acknowledgement to the storage device client to acknowledge commitment of the write of said data block; and after transmitting said acknowledgment, said storage device storing said data block to said one or more primary storage devices; while said storage device operates in write-back mode, monitoring the write operation load of said one or more primary storage devices; if said write operation load is below a threshold while said storage device operates in write-back-mode, determining to transition from write-back mode to write-through mode; and if said write operation load reaches the threshold while said storage device operates in write-through mode, determining to transition from write-through mode to write-back mode. a storage device receiving from a storage device client a data block write request to write a data block to said storage device; wherein said storage device comprises one or more primary storage devices and one or more persistent cache devices; storing, to a persistent cache device of said one or more persistent cache devices, said data block as a cache copy that is a later version of the data block version stored in said one or more primary storage devices; in response to storing said data block to said persistent cache device, transmitting an acknowledgement to the storage device client to acknowledge commitment of the write of said data block; and after transmitting said acknowledgment, said storage device storing said data block to said one or more primary storage devices; while said storage device operates in write-back mode, monitoring the write operation load of said one or more primary storage devices; if said write operation load is below a threshold while said storage device operates in write-back-mode, determining to transition from write-back mode to write-through mode; and if said write operation load reaches the threshold while said storage device operates in write-through mode, determining to transition from write-through mode to write-back mode.
A surgical stapling instrument for applying one or more surgical staples to tissue, comprising: a handle assembly; a shaft assembly coupled to said handle assembly and movably supporting a trocar assembly therein; a stapling head assembly operably coupled to said shaft assembly, said stapling head assembly comprising: a staple cartridge for supporting one or more surgical staples; a staple driver for engaging and driving the staples from said staple cartridge; and a knife movably supported in said stapling head assembly; a drive system for applying drive motions to said staple driver and said knife; an anvil removably attachable to a distal end of said trocar assembly; and an anvil feedback system operably communicating with said trocar assembly for providing an indication signal when said anvil is attached to said distal end of said trocar assembly, said anvil feedback system comprising at least one sensor on one of said distal end of said trocar assembly and said anvil, said at least one sensor communicating with an indicator on said surgical stapling instrument to provide an indication signal thereto, characterized in that said indicator is on said anvil, wherein said indicator comprises at least one illumination device that is configured to illuminate the surgical site a handle assembly; a shaft assembly coupled to said handle assembly and movably supporting a trocar assembly therein; a stapling head assembly operably coupled to said shaft assembly, said stapling head assembly comprising: a staple cartridge for supporting one or more surgical staples; a staple driver for engaging and driving the staples from said staple cartridge; and a knife movably supported in said stapling head assembly; a staple cartridge for supporting one or more surgical staples; a staple driver for engaging and driving the staples from said staple cartridge; and a knife movably supported in said stapling head assembly; a drive system for applying drive motions to said staple driver and said knife; an anvil removably attachable to a distal end of said trocar assembly; and an anvil feedback system operably communicating with said trocar assembly for providing an indication signal when said anvil is attached to said distal end of said trocar assembly, said anvil feedback system comprising at least one sensor on one of said distal end of said trocar assembly and said anvil, said at least one sensor communicating with an indicator on said surgical stapling instrument to provide an indication signal thereto, characterized in that said indicator is on said anvil, wherein said indicator comprises at least one illumination device that is configured to illuminate the surgical site
A method for data transmission, comprising: receiving, by a terminal device, first control information sent by a network device, wherein the first control information carries first indication information, the first indication information is used for indicating an offset value of a time unit relative to a specific boundary; and determining, by the terminal device, time of sidelink data transmission according to the first indication information; characterized in that the specific boundary is determined according to a second downlink time unit, the second downlink time unit is a downlink time unit on which the terminal device receives the first control information. receiving, by a terminal device, first control information sent by a network device, wherein the first control information carries first indication information, the first indication information is used for indicating an offset value of a time unit relative to a specific boundary; and determining, by the terminal device, time of sidelink data transmission according to the first indication information; characterized in that the specific boundary is determined according to a second downlink time unit, the second downlink time unit is a downlink time unit on which the terminal device receives the first control information.
Supporting beam for slab systems of composite construction which consist at least in sections of concrete, with a steel beam comprising a base plate and at least one web, preferably two webs (14, 16), arranged at an angle thereto, preferably perpendicular thereto, wherein a space limited by the web or webs (14, 16) and the base plate is configured such that, in a manufacturing step, it is filled in, at least in sections, with concrete which is not in-situ concrete in order to create a bonding effect between the steel beam and the concrete, the supporting beam has through-openings which extend through the web or webs (14, 16) transversely to the longitudinal axis of the supporting beam, the base plate has at least one projection which projects beyond the web or at least one web transversely to the longitudinal axis of the supporting beam, and the space is at least partially, preferably completely open on the side facing away from the base plate, characterised in that the inner surface of the web or webs (14, 16) is provided with form-locking means (18, 19, 21, 27) as bonding means in order to transfer force between the concrete and the steel beam and in order to absorb and transfer composite transverse forces and/or the inner surface of the web or webs (14, 16) is configured such that it acts as a bonding means itself.
A method comprising: assigning, by an aggregation device that manages interface configuration of a satellite device coupled to the aggregation device by a plurality of cascade ports of the aggregation device connected to a plurality of respective uplink ports on the satellite device, an active cascade port and a backup cascade port from the plurality of cascade ports for each extended port of a plurality of extended ports of the satellite device connected to a plurality of host devices; and allocating, by the aggregation device, one or more resources of the aggregation device only for the assigned active cascade port and the assigned backup cascade port for each extended port of the plurality of extended ports of the satellite device; receiving, by the aggregation device, a packet destined for a host device of the plurality of host devices, said host device coupled to the satellite device by an extended port of the plurality of extended ports; determining, by the aggregation device, an active cascade port assigned to the extended port; and forwarding, by the aggregation device and to the satellite device, the packet through the active cascade port. assigning, by an aggregation device that manages interface configuration of a satellite device coupled to the aggregation device by a plurality of cascade ports of the aggregation device connected to a plurality of respective uplink ports on the satellite device, an active cascade port and a backup cascade port from the plurality of cascade ports for each extended port of a plurality of extended ports of the satellite device connected to a plurality of host devices; and allocating, by the aggregation device, one or more resources of the aggregation device only for the assigned active cascade port and the assigned backup cascade port for each extended port of the plurality of extended ports of the satellite device; receiving, by the aggregation device, a packet destined for a host device of the plurality of host devices, said host device coupled to the satellite device by an extended port of the plurality of extended ports; determining, by the aggregation device, an active cascade port assigned to the extended port; and forwarding, by the aggregation device and to the satellite device, the packet through the active cascade port.
An anti-TNF antibody for use in a method of treating ulcerative colitis in a subject, the method comprising administering to the subject the antibody in an ingestible device, wherein the ingestible device comprises an ingestible housing comprising a reservoir having a therapeutically effective amount of the anti-TNF antibody stored therein; a release mechanism having a closed state which retains the anti-TNF antibody in the reservoir and an open state which allows for the release of the anti-TNF antibody from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the gastrointestinal tract; and a processor or controller which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the anti-TNF antibody in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum. an ingestible housing comprising a reservoir having a therapeutically effective amount of the anti-TNF antibody stored therein; a release mechanism having a closed state which retains the anti-TNF antibody in the reservoir and an open state which allows for the release of the anti-TNF antibody from the reservoir to the exterior of the device; an actuator which controls the transition of the release mechanism from the closed to the open state; a detector for detecting the location of the ingestible device in the gastrointestinal tract; and a processor or controller which is coupled to the detector and to the actuator and which triggers the actuator to cause the release mechanism to transition from its closed state to its open state to release the anti-TNF antibody in the cecum when it is determined that the ingestible device is in the cecum of the subject, wherein the site of disease is in the colon, wherein determining the location of the ingestible device in the gastrointestinal tract comprises detecting a transition of the ingestible device from the ileum to the cecum.
A method, comprising: receiving a resource allocation message indicative of a plurality of resource groups allocated for a physical layer random access preamble; and transmitting the physical layer random access preamble using a portion of the plurality of resource groups, wherein, in a frequency domain, the portion of the plurality of resource groups presents a predefined hopping pattern comprising at least a first predefined hopping path that is associated with increasing subcarrier frequency by a first amount of frequency spacings and a second predefined hopping path that is associated with decreasing subcarrier frequency by a second amount of frequency spacings, wherein the first hopping path and the second hopping path are used by two different resource groups, respectively, characterized in that: the first amount of frequency spacings equals the second amount of frequency spacings, and the second amount of frequency spacings immediately follows the first amount of frequency spacings. receiving a resource allocation message indicative of a plurality of resource groups allocated for a physical layer random access preamble; and transmitting the physical layer random access preamble using a portion of the plurality of resource groups, wherein, in a frequency domain, the portion of the plurality of resource groups presents a predefined hopping pattern comprising at least a first predefined hopping path that is associated with increasing subcarrier frequency by a first amount of frequency spacings and a second predefined hopping path that is associated with decreasing subcarrier frequency by a second amount of frequency spacings, wherein the first hopping path and the second hopping path are used by two different resource groups, respectively, characterized in that: the first amount of frequency spacings equals the second amount of frequency spacings, and the second amount of frequency spacings immediately follows the first amount of frequency spacings. the first amount of frequency spacings equals the second amount of frequency spacings, and the second amount of frequency spacings immediately follows the first amount of frequency spacings.
A spin coating device comprising: a base plate; a spin chuck on which a substrate material is configured to be placed, the substrate material comprising a top surface and a bottom surface, and the top surface being a surface configured to be coated with a film-forming substance; and an actuator mechanism configured to engage the base plate with the spin chuck such that the base plate is configured to synchronously spin along with the spin chuck, wherein a cleaning mechanism is below the base plate and out of optimal exposure to the bottom surface of the substrate material and edges thereof in a state of the engagement of the base plate with the spin chuck, wherein the actuator mechanism is further configured to: in response to disengagement of a lid configured to synchronously co-rotate with the base plate during the synchronous spinning thereof along with the spin chuck from the base plate, disengage the base plate from the spin chuck to render the spin chuck free of the base plate, and wherein the disengagement of the base plate from the spin chuck is configured to lower the base plate such that the cleaning mechanism is optimally exposed to the bottom surface of the substrate material and the edges thereof based on emergence of the cleaning mechanism through the base plate. a base plate; a spin chuck on which a substrate material is configured to be placed, the substrate material comprising a top surface and a bottom surface, and the top surface being a surface configured to be coated with a film-forming substance; and an actuator mechanism configured to engage the base plate with the spin chuck such that the base plate is configured to synchronously spin along with the spin chuck, wherein a cleaning mechanism is below the base plate and out of optimal exposure to the bottom surface of the substrate material and edges thereof in a state of the engagement of the base plate with the spin chuck, wherein the actuator mechanism is further configured to: in response to disengagement of a lid configured to synchronously co-rotate with the base plate during the synchronous spinning thereof along with the spin chuck from the base plate, disengage the base plate from the spin chuck to render the spin chuck free of the base plate, and wherein the disengagement of the base plate from the spin chuck is configured to lower the base plate such that the cleaning mechanism is optimally exposed to the bottom surface of the substrate material and the edges thereof based on emergence of the cleaning mechanism through the base plate.
A stator vane comprising an airfoil comprising a first sidewall; and a second sidewall coupled to said first sidewall at a leading edge and at a trailing edge, said airfoil extends radially from a root portion to a tip portion, each of said leading and trailing edges comprises at least one lean directional change (174,176,182,184,186) from a forward lean to a backward lean and/or a backward lean to a forward lean and a plurality of sweep directional changes (196,198,202,204,206) from a forward sweep to a backward sweep and/or a backward sweep to a forward sweep defined between said root portion and said tip portion; characterised in that: said airfoil further comprises a midpoint defined approximately halfway between said root portion and said tip portion, said trailing edge comprises at least two lean directional changes (182,184) from a forward lean to a backward lean and/or a backward lean to a forward lean defined between said root portion and said midpoint. said airfoil further comprises a midpoint defined approximately halfway between said root portion and said tip portion, said trailing edge comprises at least two lean directional changes (182,184) from a forward lean to a backward lean and/or a backward lean to a forward lean defined between said root portion and said midpoint.
An air heating system for an inkjet printer having a print zone in which printing fluid may be dispensed on to a print substrate, the system comprising: a dryer to blow heated air on to the print substrate after printing fluid is dispensed on to the substrate in the print zone; and characterised by comprising: a vapor control heater to blow heated air into an air flow from the dryer after the air flow passes over the print substrate.
A method of pulping a cotton-based raw material for producing dissolving pulp, said method comprising the steps of: a. incubating the cotton-based raw material with an alkaline solution in combination with a gaseous oxidizing agent in a pressurized vessel i. at a temperature of 90°C ± 20% - 185°C ± 20%, ii. for an incubation time of 45 min ± 20% - 270 min ± 20%, iii. in the presence of a cellulose-stabilizing additive, iv. at a concentration of alkali of 1% (w/w) ± 20% - 35% (w/w) ± 20% of the cotton-based raw material, and v. at an initial gas pressure of 1 bar ± 20% - 21 bar ± 20% (0.1 MPa ± 20% - 2.1 MPa ± 20%); and b. washing the generated pulp, wherein the cotton-based raw material is a pre- or post-consumer material, and wherein the cellulose-stabilizing additive is a magnesium salt, preferably magnesium sulfate, or a transition metal chelator, preferably EDTA, DTPA, NTA, DTPMPA or any combination thereof. a. incubating the cotton-based raw material with an alkaline solution in combination with a gaseous oxidizing agent in a pressurized vessel i. at a temperature of 90°C ± 20% - 185°C ± 20%, ii. for an incubation time of 45 min ± 20% - 270 min ± 20%, iii. in the presence of a cellulose-stabilizing additive, iv. at a concentration of alkali of 1% (w/w) ± 20% - 35% (w/w) ± 20% of the cotton-based raw material, and v. at an initial gas pressure of 1 bar ± 20% - 21 bar ± 20% (0.1 MPa ± 20% - 2.1 MPa ± 20%); and i. at a temperature of 90°C ± 20% - 185°C ± 20%, ii. for an incubation time of 45 min ± 20% - 270 min ± 20%, iii. in the presence of a cellulose-stabilizing additive, iv. at a concentration of alkali of 1% (w/w) ± 20% - 35% (w/w) ± 20% of the cotton-based raw material, and v. at an initial gas pressure of 1 bar ± 20% - 21 bar ± 20% (0.1 MPa ± 20% - 2.1 MPa ± 20%); and b. washing the generated pulp,
A pressure sensor element comprising: a piezoelectric element having an upper surface and a lower surface; and electrodes for extracting electric charges from the piezoelectric element, wherein the electrodes sandwich the piezoelectric element therebetween and each of the electrodes is connected to a corresponding contact point (51 a, 51 b) of a charge amplifier for measurement of pressure applied to the pressure sensor element, characterized by a high-resistance material film covering, at least in part, at least one of the upper surface and the lower surface, the high-resistance material film having an electrical resistance larger than an electrical resistance of the piezoelectric element; wherein a combined resistance of the piezoelectric element and the high-resistance material film is equal to or more than 1 × 10 11 Ω under an environment of the temperature between 400°C and 500°C. a piezoelectric element having an upper surface and a lower surface; and electrodes for extracting electric charges from the piezoelectric element, wherein the electrodes sandwich the piezoelectric element therebetween and each of the electrodes is connected to a corresponding contact point (51 a, 51 b) of a charge amplifier for measurement of pressure applied to the pressure sensor element, a high-resistance material film covering, at least in part, at least one of the upper surface and the lower surface, the high-resistance material film having an electrical resistance larger than an electrical resistance of the piezoelectric element;