mhurhangee/ep-ind-claims huggingface dataset:
Device for cutting food, comprising a cutting unit having a rotatable carrier, a slicing knife associated with the carrier for slicing the food,, wherein the cutting unit furthermore comprises at least one dicing knife for dicing the food, and a protection element which is designed to be arranged vis-à-vis a side of the carrier where the dicing knife is present, for delimiting a dicing space for the dicing knife to move through during operation, and wherein the protection element is equipped with at least one annular groove at a side for facing the carrier, characterized in that the at least one dicing knife is associated with the carrier and in that the at least one annular groove is for receiving a free end of the dicing knife associated with the carrier.
An apparatus comprising: an accelerator comprising one or more execution units (801: 804), EUs, to execute a specified set of instructions; and a front end core coupled to the accelerator comprising: a translation lookaside buffer, TLB, communicatively coupled to and shared with the accelerator and providing memory access services to the accelerator, the memory access services including performing TLB lookup operations to map virtual to physical addresses on behalf of the accelerator in response to the accelerator requiring access to a system memory, and characterized by: the front-end core further comprising a page walker module to determine a virtual to physical address mapping when a TLB entry does not exist for a current memory access; a page fault handler; and a TLB shootdown handler for performing a TLB shootdown operation at the TLB of the front end core, whereby, in response to detecting a TLB shootdown operation for a particular page that has been restricted to use by a particular system component, the TLB shootdown operation causes TLB entries for the particular page and associated with other accelerators/cores, which are not permitted to access said particular page, to be flushed; and the apparatus further comprising a memory hierarchy including the system memory communicatively coupled to both the front end core and the accelerator and accessible via the physical addresses provided by the TLB lookup operations. an accelerator comprising one or more execution units (801: 804), EUs, to execute a specified set of instructions; and a front end core coupled to the accelerator comprising: a translation lookaside buffer, TLB, communicatively coupled to and shared with the accelerator and providing memory access services to the accelerator, the memory access services including performing TLB lookup operations to map virtual to physical addresses on behalf of the accelerator in response to the accelerator requiring access to a system memory, and characterized by: the front-end core further comprising a page walker module to determine a virtual to physical address mapping when a TLB entry does not exist for a current memory access; a page fault handler; and a TLB shootdown handler for performing a TLB shootdown operation at the TLB of the front end core, whereby, in response to detecting a TLB shootdown operation for a particular page that has been restricted to use by a particular system component, the TLB shootdown operation causes TLB entries for the particular page and associated with other accelerators/cores, which are not permitted to access said particular page, to be flushed; and the apparatus further comprising a memory hierarchy including the system memory communicatively coupled to both the front end core and the accelerator and accessible via the physical addresses provided by the TLB lookup operations.
A method for producing high-purity scandium oxide, the method comprising: a first calcination step of subjecting a solution containing scandium to an oxalate formation treatment using oxalic acid and calcinating crystals of obtained scandium oxalate at a temperature of 400°C to 600°C; a dissolution step of dissolving a scandium compound obtained by calcinating, in at least one selected from hydrochloric acid and nitric acid to obtain a solution; a reprecipitation step of subjecting the solution to an oxalate formation treatment using oxalic acid to generate a reprecipitation product of scandium oxalate; and a second calcination step of calcinating the obtained reprecipitation product of scandium oxalate at a temperature of 900°C or higher to obtain scandium oxide. a first calcination step of subjecting a solution containing scandium to an oxalate formation treatment using oxalic acid and calcinating crystals of obtained scandium oxalate at a temperature of 400°C to 600°C; a dissolution step of dissolving a scandium compound obtained by calcinating, in at least one selected from hydrochloric acid and nitric acid to obtain a solution; a reprecipitation step of subjecting the solution to an oxalate formation treatment using oxalic acid to generate a reprecipitation product of scandium oxalate; and a second calcination step of calcinating the obtained reprecipitation product of scandium oxalate at a temperature of 900°C or higher to obtain scandium oxide.
A method for wireless communications by a first user equipment, UE, comprising: obtaining first data from a network entity intended for a second UE by decoding a first transmission of the first data intended for the second UE; receiving signaling indicating the first UE is to retransmit the first data to the second UE; and in response to the signaling: transmitting sidelink control information, SCI, scheduling a physical sidelink shared channel, PSSCH, transmission from the first UE to the second UE, wherein the SCI includes a hybrid automatic repeat request, HARQ, process identifier, ID, and wherein the SCI indicates the HARQ process ID is associated with a retransmission of data from the network entity; and retransmitting the first data to the second UE via the PSSCH. obtaining first data from a network entity intended for a second UE by decoding a first transmission of the first data intended for the second UE; receiving signaling indicating the first UE is to retransmit the first data to the second UE; and in response to the signaling: transmitting sidelink control information, SCI, scheduling a physical sidelink shared channel, PSSCH, transmission from the first UE to the second UE, wherein the SCI includes a hybrid automatic repeat request, HARQ, process identifier, ID, and wherein the SCI indicates the HARQ process ID is associated with a retransmission of data from the network entity; and retransmitting the first data to the second UE via the PSSCH.
A compound represented by the following formula: wherein R is a hydrocarbon group having 1 to 24 carbon atoms, the different R groups in the compound being the same or different from each other; OA 1 and OA 2 are oxyethylene groups; n and m (which are each average number of moles of oxyethylene groups) are respectively 1 to 1000 and 10 to 1000; and X represents a functional group which is capable of chemically reacting with an unmodified bio-related substance and which is selected from Group or Group: Group Group -Z-NH 2 (g) -NH 2 (j) -Z-COOH (k) wherein Y represents a hydrocarbon group having 1 to 10 carbon atoms which may contain fluorine atom(s), and Z is selected from the following -: wherein s is an integer of 1 to 6. Group Group -Z-NH 2 (g) -NH 2 (j) -Z-COOH (k) wherein Y represents a hydrocarbon group having 1 to 10 carbon atoms which may contain fluorine atom(s), and Z is selected from the following -: wherein s is an integer of 1 to 6.
A method of hydrotreating an olefinic naphtha feedstream in the presence of an increased carbon monoxide content, the method comprising: contacting a first olefinic naphtha feedstream with a first hydrogen-containing treat gas stream in the presence of a first hydrotreating catalyst in a first hydrotreating reactor under first hydrotreating conditions sufficient to at least partially hydrodesulfurize and/or hydrodenitrogenate the first olefinic naphtha feedstream to produce a first hydrotreated olefinic naphtha product stream; and contacting at least a portion of the first hydrotreated olefinic naphtha product stream with a second hydrogen-containing treat gas stream in the presence of a second hydrotreating catalyst in a second hydrotreating reactor under second hydrotreating conditions sufficient to at least partially hydrodesulfurize and/or hydrodenitrogenate the first hydrotreated olefinic naphtha product stream to produce a second hydrotreated olefinic naphtha product stream; wherein the first olefinic naphtha feedstream and the first hydrogen-containing treat gas stream collectively have a carbon monoxide content from 10 vppm to 45 vppm and a carbon dioxide content from 15 vppm to 450 vppm; and wherein the first hydrotreating catalyst converts at least 5% less carbon dioxide to carbon monoxide than the second hydrotreating catalyst at the same hydrotreating conditions; and wherein the first hydrotreating catalyst comprises cobalt and molybdenum disposed on a silica-based support comprising at least 85 wt% silica. contacting a first olefinic naphtha feedstream with a first hydrogen-containing treat gas stream in the presence of a first hydrotreating catalyst in a first hydrotreating reactor under first hydrotreating conditions sufficient to at least partially hydrodesulfurize and/or hydrodenitrogenate the first olefinic naphtha feedstream to produce a first hydrotreated olefinic naphtha product stream; and contacting at least a portion of the first hydrotreated olefinic naphtha product stream with a second hydrogen-containing treat gas stream in the presence of a second hydrotreating catalyst in a second hydrotreating reactor under second hydrotreating conditions sufficient to at least partially hydrodesulfurize and/or hydrodenitrogenate the first hydrotreated olefinic naphtha product stream to produce a second hydrotreated olefinic naphtha product stream; wherein the first olefinic naphtha feedstream and the first hydrogen-containing treat gas stream collectively have a carbon monoxide content from 10 vppm to 45 vppm and a carbon dioxide content from 15 vppm to 450 vppm; and wherein the first hydrotreating catalyst converts at least 5% less carbon dioxide to carbon monoxide than the second hydrotreating catalyst at the same hydrotreating conditions; and wherein the first hydrotreating catalyst comprises cobalt and molybdenum disposed on a silica-based support comprising at least 85 wt% silica.
A blast treatment method for blast-treating with an explosive a treatment subject housed in a sealed container, the method comprising: a shaped charge placement step of placing a shaped charge, in which metal plates are integrally molded with an explosive for generating an ultra-high-pressure metal jet capable of dividing the sealed container in a prescribed direction by colliding the metal plates, at a location outside the sealed container housing the treatment subject therein; a blasting explosive placement step of placing a blasting explosive for blasting the treatment subject housed in the sealed container at a location outside the sealed container housing the treatment subject therein; a housing step of housing in a sealable chamber the sealed container in which the treatment subject is housed and housing in a state in which the shaped charge and the blasting explosive are placed at a location outside the sealed container housing the treatment subject therein; a dividing step of initiating the shaped charge in the chamber and dividing the sealed container housing the treatment subject therein along a prescribed dividing surface with the metal jet generated by blast energy of the initiated shaped charge to expose the treatment subject within the chamber; and a blasting step of blast-treating the treatment subject exposed in the chamber with blast energy of the blasting explosive by initiating the blasting explosive in the chamber. a shaped charge placement step of placing a shaped charge, in which metal plates are integrally molded with an explosive for generating an ultra-high-pressure metal jet capable of dividing the sealed container in a prescribed direction by colliding the metal plates, at a location outside the sealed container housing the treatment subject therein; a blasting explosive placement step of placing a blasting explosive for blasting the treatment subject housed in the sealed container at a location outside the sealed container housing the treatment subject therein; a housing step of housing in a sealable chamber the sealed container in which the treatment subject is housed and housing in a state in which the shaped charge and the blasting explosive are placed at a location outside the sealed container housing the treatment subject therein; a dividing step of initiating the shaped charge in the chamber and dividing the sealed container housing the treatment subject therein along a prescribed dividing surface with the metal jet generated by blast energy of the initiated shaped charge to expose the treatment subject within the chamber; and a blasting step of blast-treating the treatment subject exposed in the chamber with blast energy of the blasting explosive by initiating the blasting explosive in the chamber.
A zinc oxide powder comprising zinc oxide aggregates which, when used in a dispersion at a concentration of at least 10 wt% of zinc oxide, produces a transparent composition having a total visible transmittance through a path length of 20 micrometers at 550nm of at least one of: at least 75%, at least 80%, at least 85% or at least 93%, the powder having a number average zinc oxide aggregate size, on an aggregate number weighted basis, of at least 0.8 micrometers or at least 1 micrometer, wherein the aggregates are mesoporous and have a total mesopore volume of at least 0.25 cm 3 /g or at least 0.35 cm 3 /g or at least 0.5 cm 3 /g.
A ship's hull, wherein a portion of the ship's hull is above its waterline, wherein the hull above the waterline is designed essentially as a section of an aerofoil of the NACA foil type which is symmetrical to the centre line of the ship's hull and where the leading edge of the aerofoil section is facing in the direction of the front of the ship, in order, with relative wind, to generate an aerodynamic lift that produces propulsion for the ship within an angular sector of the angle of attack (β) between the relative wind and the ship's course or direction of propulsion, the aerodynamic lift being balanced out by a hydrodynamic lift generated below the waterline, and the aerofoil section is delimited by respective upper and lower faces above the waterline which project at angles out from the surface of the aerofoil section across a part of the periphery of the aerofoil section, and at least along the leading edge and part of the sides of the aerofoil section.
A method for monitoring single board running state of a wireless communication base station, comprising: establishing an Module Management Controller -MMC- communication channel between a slave board and a master control board when the slave board is powered up; and the slave board reporting running state information of the slave board to the master control board by the MMC communication channel according to one or more preset monitor information points; characterized in that the monitor information points are used to indicate the running state of the running stages of the slave board, wherein the running stages comprises at least one of the following: an assembly code running stage, a CPU-minimum-support system running stage, a boot extended application execution stage, a single board control running stage and an upper applications running stage. establishing an Module Management Controller -MMC- communication channel between a slave board and a master control board when the slave board is powered up; and the slave board reporting running state information of the slave board to the master control board by the MMC communication channel according to one or more preset monitor information points; characterized in that the monitor information points are used to indicate the running state of the running stages of the slave board, wherein the running stages comprises at least one of the following: an assembly code running stage, a CPU-minimum-support system running stage, a boot extended application execution stage, a single board control running stage and an upper applications running stage. an assembly code running stage, a CPU-minimum-support system running stage, a boot extended application execution stage, a single board control running stage and an upper applications running stage.
A pharmaceutical composition for use in the treatment of ataxia in spinocerebellar degeneration comprising, as an active ingredient, a daily dose of 1.6 mg to 3.2 mg of rovatirelin or 1.6 mg to 3.2 mg of pharmacologically acceptable salt of rovatirelin as being calculated as a free form, wherein the pharmaceutical composition is administered once daily.
A method of controlling radio transmissions in a cellular network, the method comprising: detecting, by a communication device, a need to transmit a data packet to an access node of the cellular network; and in response to the detecting of the need, performing, by the communication device, a selection between a scheduled transmission of the data packet to the access node and an unscheduled transmission of the data packet to the access node, wherein the selection between the scheduled transmission and the unscheduled transmission is performed individually for each data packet that needs to be transmitted to the access node, wherein the scheduled transmission comprises: requesting, by the communication device, an allocation of radio resources by the cellular network; in response to the requesting, receiving, by the communication device, an indication of the allocated radio resources from the cellular network; and performing, by the communication device, a radio transmission on the allocated radio resources to send the data packet to the access node, and wherein the unscheduled transmission comprises: without requesting the allocation of the radio resources by the cellular network, performing, by the communication device, a radio transmission on further radio resources to send the data packet to the access node. detecting, by a communication device, a need to transmit a data packet to an access node of the cellular network; and in response to the detecting of the need, performing, by the communication device, a selection between a scheduled transmission of the data packet to the access node and an unscheduled transmission of the data packet to the access node, wherein the selection between the scheduled transmission and the unscheduled transmission is performed individually for each data packet that needs to be transmitted to the access node, wherein the scheduled transmission comprises: requesting, by the communication device, an allocation of radio resources by the cellular network; in response to the requesting, receiving, by the communication device, an indication of the allocated radio resources from the cellular network; and performing, by the communication device, a radio transmission on the allocated radio resources to send the data packet to the access node, and wherein the unscheduled transmission comprises: without requesting the allocation of the radio resources by the cellular network, performing, by the communication device, a radio transmission on further radio resources to send the data packet to the access node.
A method for wireless communication, comprising: determining granularity of feedback of channel state information, CSI, for each of a plurality of cells, the granularity of feedback for each cell being selected based on quality of a communication channel between the cell and a user equipment, UE; and reporting CSI for each of the plurality of cells based on the granularity of feedback for the cell. determining granularity of feedback of channel state information, CSI, for each of a plurality of cells, the granularity of feedback for each cell being selected based on quality of a communication channel between the cell and a user equipment, UE; and reporting CSI for each of the plurality of cells based on the granularity of feedback for the cell.
A coffee cartridge containing unground and unroasted coffee beans, said cartridge having walls defining a chamber in which the beans are confined, wherein: (a) part or all of at least one wall is reversibly openable such that a plunger may be introduced into the cartridge chamber to apply a crushing force to the beans confined in the chamber, and (b) the reversibly openable wall is opposed to a slidable wall, wherein the reversibly openable wall or part thereof comprises a folded closure comprising a flap and the slidable wall is adapted to slide towards the openable wall such that the beans can be displaced from the chamber when said reversibly openable wall is open.
A method of integrating a magneto-resistive field sensor element having a film plane with an in-plane field sensitivity and out-of-plane flux guides configured to respond to magnetic field components perpendicular to the film plane, comprising: etching a first and a second plurality of trenches (208, 222) within a first dielectric layer, each trench of the first and second plurality of trenches having a bottom and at least two sides; depositing a first material (212, 214) on the at least two sides of each of the first plurality of trenches, the first material having a high magnetic permeability; depositing a second material within the first plurality of trenches and a third material within the second plurality of trenches, the third material being electrically conductive; depositing a second dielectric layer over the first dielectric layer and the first and second plurality of trenches (208, 222); forming a first plurality of conductive vias through the second dielectric layer to the third material in a first portion of the second plurality of trenches; forming a first plurality of magneto-resistive field sensor elements (123, 127) upon the second dielectric layer positioned adjacent to a side of the at least two sides of the first plurality of trenches; and depositing a third dielectric layer over the second dielectric layer and the first plurality of magneto-resistive field sensor elements (123, 127). etching a first and a second plurality of trenches (208, 222) within a first dielectric layer, each trench of the first and second plurality of trenches having a bottom and at least two sides; depositing a first material (212, 214) on the at least two sides of each of the first plurality of trenches, the first material having a high magnetic permeability; depositing a second material within the first plurality of trenches and a third material within the second plurality of trenches, the third material being electrically conductive; depositing a second dielectric layer over the first dielectric layer and the first and second plurality of trenches (208, 222); forming a first plurality of conductive vias through the second dielectric layer to the third material in a first portion of the second plurality of trenches; forming a first plurality of magneto-resistive field sensor elements (123, 127) upon the second dielectric layer positioned adjacent to a side of the at least two sides of the first plurality of trenches; and depositing a third dielectric layer over the second dielectric layer and the first plurality of magneto-resistive field sensor elements (123, 127).