mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the continuous production of an adsorption product of a nitrooxy-functional organic compound adsorbed on the surface of a particulate adsorbent material, the process comprising the steps of: continuously feeding particulate adsorbent material into an elongated cavity ; continuously conveying the material within the cavity in a downstream direction; continuously spraying a liquid adsorbate onto the particulate adsorbent material, wherein the liquid adsorbate comprises the nitrooxy-functional organic compound; continuously agitating the mixture thus obtained to form the adsorption product; and continuously removing the adsorption product from the cavity ; wherein the cavity comprises an initial transport zone where the particulate adsorbent material is actively conveyed in a downstream direction, preferably by a screw conveyor , and wherein the cavity comprises a mixing zone where the liquid adsorbate is sprayed onto the particulate adsorbent material and the mixture thus obtained is agitated by mixing instruments (18-1, 18-2) to form the adsorption product, preferably by mixing instruments (18-1, 18-2) such as mixing paddles that are mounted on a shaft that extends through the cavity in a longitudinal direction; and wherein the screw conveyor and/or shaft-mounted mixing elements (18-1, 18-2) are operated at a rotational speed such that the peripheral speed of the screw conveyor and/or shaft-mounted mixing elements (18-1, 18-2) is 1 m/s or less. continuously feeding particulate adsorbent material into an elongated cavity ; continuously conveying the material within the cavity in a downstream direction; continuously spraying a liquid adsorbate onto the particulate adsorbent material, wherein the liquid adsorbate comprises the nitrooxy-functional organic compound; continuously agitating the mixture thus obtained to form the adsorption product; and continuously removing the adsorption product from the cavity ; wherein the cavity comprises an initial transport zone where the particulate adsorbent material is actively conveyed in a downstream direction, preferably by a screw conveyor , and wherein the cavity comprises a mixing zone where the liquid adsorbate is sprayed onto the particulate adsorbent material and the mixture thus obtained is agitated by mixing instruments (18-1, 18-2) to form the adsorption product, preferably by mixing instruments (18-1, 18-2) such as mixing paddles that are mounted on a shaft that extends through the cavity in a longitudinal direction; and wherein the screw conveyor and/or shaft-mounted mixing elements (18-1, 18-2) are operated at a rotational speed such that the peripheral speed of the screw conveyor and/or shaft-mounted mixing elements (18-1, 18-2) is 1 m/s or less.
A cell access resource acquisition method, comprising: determining , by user equipment, UE, at least one candidate sequence of a synchronization signal of an access cell; detecting , by the UE, the synchronization signal according to the at least one candidate sequence; receiving , by the UE, a broadcast channel of the access cell on a broadcast channel resource corresponding to an actual access resource on which the detected synchronization signal is located, the broadcast channel carries resource indication information, which is used for indicating a location relationship between the actual access resource and a lowest frequency of a resource on which the access cell is located; and obtaining, by the UE, the location relationship, which is a frequency interval between a resource location of the actual access resource and a location of the lowest frequency of the resource on which the access cell is located. determining , by user equipment, UE, at least one candidate sequence of a synchronization signal of an access cell; detecting , by the UE, the synchronization signal according to the at least one candidate sequence; receiving , by the UE, a broadcast channel of the access cell on a broadcast channel resource corresponding to an actual access resource on which the detected synchronization signal is located, the broadcast channel carries resource indication information, which is used for indicating a location relationship between the actual access resource and a lowest frequency of a resource on which the access cell is located; and obtaining, by the UE, the location relationship, which is a frequency interval between a resource location of the actual access resource and a location of the lowest frequency of the resource on which the access cell is located.
A fish processing device , the device including: a channel being designed to accommodate or to guide the fish within water, the fish being enticed to swim through the channel by a water current; a sensor located within or adjacent to the channel , wherein the sensor detects that a fish is incorrectly orientated in the channel ; a barrier , the barrier to assist in preventing a fish passing through the channel as long as the fish is in an incorrect orientation; and a control system , wherein the control system controls the barrier in response to an output of the sensor . a channel being designed to accommodate or to guide the fish within water, the fish being enticed to swim through the channel by a water current; a sensor located within or adjacent to the channel , wherein the sensor detects that a fish is incorrectly orientated in the channel ; a barrier , the barrier to assist in preventing a fish passing through the channel as long as the fish is in an incorrect orientation; and a control system , wherein the control system controls the barrier in response to an output of the sensor .
A method for preparing DOTA, comprising the following steps: carrying out an alkylation reaction on cyclen and XCH 2 COOR in the presence of an acid-binding agent in water; adjusting a pH value to precipitate a crude product of DOTA; and recrystallizing; wherein R is H, an alkali metal or a C 1 -C 6 alkyl; X is chlorine, bromine or iodine, a solvent for recrystallization is water or a mixed solvent of water and an organic solvent; the acid-binding agent is lithium hydroxide and/or lithium hydroxide monohydrate;
A current clamp meter , comprising: a current meter body and a current clamp , the current meter body including circuits operable to calculate a current measurement from an input signal, the current clamp being electrically coupled to the circuits by a wire and configured to sense a current and configured to provide the input signal, wherein the current meter body and the current clamp are configured to have the current clamp detachable from the current meter body and maintain operability through the wire when the current clamp is attached to the current meter body and when the current clamp is detached from the current meter body , and wherein the current meter body comprises first and second clamp retention members that extend from the current meter body and define a region therebetween in which the current clamp is positioned and retained when the current clamp is attached to the current meter body.
A decision system comprising: an identifier configured to identify, by performing identification processing based on a captured image, a work target shot as a subject of the captured image as one of a plurality of work targets, the captured image being generated by an image capturing unit attached to a tool ; characterized in that the decision system further comprises: a decider configured to decide, through decision processing, whether a first work target is a mistakable work target by comparing, by reference to at least one reference image, the first work target with a second work target, the first work target and the second work target being both included in the plurality of work targets, the second work target being either similar or unsimilar to the first work target, the second work target similar to the first work target making the first work target the mistakable work target that is difficult to identify based on the captured image, and the at least one reference image belonging to a plurality of reference images corresponding one to one to the plurality of work targets. an identifier configured to identify, by performing identification processing based on a captured image, a work target shot as a subject of the captured image as one of a plurality of work targets, the captured image being generated by an image capturing unit attached to a tool ; characterized in that the decision system further comprises: a decider configured to decide, through decision processing, whether a first work target is a mistakable work target by comparing, by reference to at least one reference image, the first work target with a second work target, the first work target and the second work target being both included in the plurality of work targets, the second work target being either similar or unsimilar to the first work target, the second work target similar to the first work target making the first work target the mistakable work target that is difficult to identify based on the captured image, and the at least one reference image belonging to a plurality of reference images corresponding one to one to the plurality of work targets. a decider configured to decide, through decision processing, whether a first work target is a mistakable work target by comparing, by reference to at least one reference image, the first work target with a second work target, the first work target and the second work target being both included in the plurality of work targets, the second work target being either similar or unsimilar to the first work target, the second work target similar to the first work target making the first work target the mistakable work target that is difficult to identify based on the captured image, and the at least one reference image belonging to a plurality of reference images corresponding one to one to the plurality of work targets.
A core network node for mobility management, comprising: means for retrieving an Expected User Equipment, UE, behavior parameter from a data management node ; and means for sending, to a Radio Access Network, RAN , a message for N2 connection between the core network node and the RAN including Radio Resource Control, RRC, inactive assistance information based on the Expected UE behavior parameter in order for the RAN to optimize UE state transition, wherein the RRC inactive assistance information comprises Expected UE Moving Trajectory information indicating the UE's expected geographical movement and UE mobility information indicating whether the UE is stationary or mobile. means for retrieving an Expected User Equipment, UE, behavior parameter from a data management node ; and means for sending, to a Radio Access Network, RAN , a message for N2 connection between the core network node and the RAN including Radio Resource Control, RRC, inactive assistance information based on the Expected UE behavior parameter in order for the RAN to optimize UE state transition, wherein the RRC inactive assistance information comprises Expected UE Moving Trajectory information indicating the UE's expected geographical movement and UE mobility information indicating whether the UE is stationary or mobile.
A washing machine comprising: a cabinet that comprises a plurality of side frames , a rear frame and a front frame and forms a washing space in the cabinet ; and a top frame disposed at an upper portion of the cabinet , wherein the top frame comprises: an external frame that forms an exterior; and an internal frame that is disposed to come into close contact with a lower portion of the external frame , is disposed to be separated from the external frame and is disposed to be coupled to the cabinet , wherein the external frame covers the entire area of the internal frame . a cabinet that comprises a plurality of side frames , a rear frame and a front frame and forms a washing space in the cabinet ; and a top frame disposed at an upper portion of the cabinet , wherein the top frame comprises: an external frame that forms an exterior; and an internal frame that is disposed to come into close contact with a lower portion of the external frame , is disposed to be separated from the external frame and is disposed to be coupled to the cabinet , wherein the external frame covers the entire area of the internal frame . an external frame that forms an exterior; and an internal frame that is disposed to come into close contact with a lower portion of the external frame , is disposed to be separated from the external frame and is disposed to be coupled to the cabinet , wherein the external frame covers the entire area of the internal frame .
A powder container for use with an image forming apparatus, the powder container comprising: a container body to contain a powder for image formation; a nozzle receiver to receive a conveying nozzle of the image forming apparatus; a conveyor to convey the powder from one end in a longitudinal direction of the container body to an opposite end of the container body at which the nozzle receiver is disposed, the conveyor including a spiral rib at an inner surface of the container body ; a gear to rotate the conveyor by receiving an external driving force; and an engagement section to be engaged with an engaging member of the image forming apparatus, wherein the spiral rib includes a section at said opposite end of the container body that is substantially parallel to the longitudinal direction of the container body , the section being an end portion of the spiral rib , characterized in that the nozzle receiver includes a powder receiving opening to which the powder is conveyed along the inner surface of the container body by the end portion of the spiral rib . a container body to contain a powder for image formation; a nozzle receiver to receive a conveying nozzle of the image forming apparatus; a conveyor to convey the powder from one end in a longitudinal direction of the container body to an opposite end of the container body at which the nozzle receiver is disposed, the conveyor including a spiral rib at an inner surface of the container body ; a gear to rotate the conveyor by receiving an external driving force; and an engagement section to be engaged with an engaging member of the image forming apparatus, wherein the spiral rib includes a section at said opposite end of the container body that is substantially parallel to the longitudinal direction of the container body , the section being an end portion of the spiral rib , characterized in that the nozzle receiver includes a powder receiving opening to which the powder is conveyed along the inner surface of the container body by the end portion of the spiral rib .
A method comprising: receiving, by an internal reference clock generator circuit of an integrated circuit , an internal reference clock signal and a reset signal; producing, by the internal reference clock generator circuit , a first clock signal based on the internal reference clock signal and the reset signal; receiving, by a sequential circuit , the first clock signal; providing, by the sequential circuit , the internal reference clock signal based on the first clock signal; receiving by a pulse generator circuit , the internal reference clock signal; counting, by the pulse generator circuit , a number of internal reference clock edges during a single clock cycle of a slow oscillator ring clock signal having a period longer than a period of the internal reference clock signal; determining whether the number is equal to zero; and generating a pulse and providing the pulse to the sequential circuit to recover the clock generator circuit from a deadlock in response to the number of the internal reference clock edges being equal to zero. receiving, by an internal reference clock generator circuit of an integrated circuit , an internal reference clock signal and a reset signal; producing, by the internal reference clock generator circuit , a first clock signal based on the internal reference clock signal and the reset signal; receiving, by a sequential circuit , the first clock signal; providing, by the sequential circuit , the internal reference clock signal based on the first clock signal; receiving by a pulse generator circuit , the internal reference clock signal; counting, by the pulse generator circuit , a number of internal reference clock edges during a single clock cycle of a slow oscillator ring clock signal having a period longer than a period of the internal reference clock signal; determining whether the number is equal to zero; and generating a pulse and providing the pulse to the sequential circuit to recover the clock generator circuit from a deadlock in response to the number of the internal reference clock edges being equal to zero.
Cooking system , comprising at least one first hotplate and at least one item of cookware , the first hotplate and the cookware being designed to transmit an electromagnetic signal and/or structure-borne noise signal generated in or on the cookware from the cookware at least to the first hotplate , characterised in that the cookware has an operating element which is designed to trigger the generation of the structure-borne noise signal when actuated, and/or the cookware has an operating element which is designed to generate the electromagnetic signal when actuated by means of a conversion device.
Switching device for conducting and interrupting electrical currents, having - a first mechanical contact assembly , - a semiconductor switch connected in parallel to the first mechanical contact assembly, - a second mechanical contact assembly connected in series to the first mechanical contact assembly, and - a switching electronics system designed to switch the semiconductor switch on and off, characterised in that the switching electronics system is designed, during a closing process of the first mechanical contact assembly , to switch on (S14) the semiconductor switch at the end of a first specified time period t-0 (S12) after initialisation (S10) of the switching electronics system , and to switch same off (S18) again at the end of a second specified time period t-1 (S16), wherein the first specified time period t-0 is set by the switching electronics system depending on the first mechanical contact assembly . - a first mechanical contact assembly , - a semiconductor switch connected in parallel to the first mechanical contact assembly, - a second mechanical contact assembly connected in series to the first mechanical contact assembly, and - a switching electronics system designed to switch the semiconductor switch on and off,
A system for processing a web, the system comprising: a rotating vacuum commutation structure ; a rotating article carrying surface for receiving at least a portion of a traveling web traveling at a first speed; said rotating vacuum commutation structure communicatively coupled to a first portion of said rotating article carrying surface; said rotating vacuum commutation structure movably communicatively coupled between said first portion of said rotating article carrying surface to a second portion of said rotating article carrying surface, said rotating vacuum commutation structure being characterized by traveling at a speed variable from less than said first speed, to said first speed, to greater than said first speed. a rotating vacuum commutation structure ; a rotating article carrying surface for receiving at least a portion of a traveling web traveling at a first speed; said rotating vacuum commutation structure communicatively coupled to a first portion of said rotating article carrying surface; said rotating vacuum commutation structure movably communicatively coupled between said first portion of said rotating article carrying surface to a second portion of said rotating article carrying surface, said rotating vacuum commutation structure being characterized by traveling at a speed variable from less than said first speed, to said first speed, to greater than said first speed.
Method for operating a combined cycle power plant , which has a gas turbine installation and a water-steam cycle , which is connected to the gas turbine installation by means of a waste heat steam generator and has at least one steam turbine , wherein the gas turbine installation includes a compressor , a combustion chamber and a turbine , and wherein to cool the turbine , air compressed at the compressor is removed, is cooled in at least one cooler flowed through by water thus generating steam and is introduced into the turbine , characterized in that at least with the gas turbine installation running, prior to or during the start-up of the water-steam cycle , waste heat contained in the steam generated in the at least one cooler is used for pre-heating the installation at a position inside the combined cycle power plant , characterized in that the water-steam cycle includes means for condensing the steam emerging from the steam turbine , which condensation means are operated under vacuum, and in that the steam generated in the at least one cooler is used to evacuate the condensation means .
A positive electrode active material for a nonaqueous electrolyte secondary battery, the positive electrode active material comprising a lithium-nickel-manganese composite oxide containing a secondary particle formed of a plurality of flocculated primary particles and a lithium-niobium compound, wherein the positive electrode active material is represented by General Formula : Li d Ni 1-a-b-c Mn a M b Nb c O 2+γ in General Formula , M is at least one element selected from Co, W, Mo, V, Mg, Ca, Al, Ti, Cr, Zr, and Ta; and 0.03 ≤ a ≤ 0.60, 0 ≤ b ≤ 0.60, 0.02 ≤ c ≤ 0.08, a + b + c < 1, 0.95 ≤ d ≤ 1.20, and 0 ≤ γ ≤ 0.5, the lithium-nickel-manganese composite oxide has a -plane crystallite diameter of at least 50 nm and up to 130 nm, the lithium-niobium compound is present on surfaces of the primary particles, and part of niobium in the positive electrode active material is solid-solved in the primary particles. the positive electrode active material is represented by General Formula : Li d Ni 1-a-b-c Mn a M b Nb c O 2+γ in General Formula , M is at least one element selected from Co, W, Mo, V, Mg, Ca, Al, Ti, Cr, Zr, and Ta; and 0.03 ≤ a ≤ 0.60, 0 ≤ b ≤ 0.60, 0.02 ≤ c ≤ 0.08, a + b + c < 1, 0.95 ≤ d ≤ 1.20, and 0 ≤ γ ≤ 0.5, the lithium-nickel-manganese composite oxide has a -plane crystallite diameter of at least 50 nm and up to 130 nm, the lithium-niobium compound is present on surfaces of the primary particles, and part of niobium in the positive electrode active material is solid-solved in the primary particles.