mhurhangee/patent-ind-claim-en huggingface dataset:
An image forming apparatus comprising: forming means including a plurality of developing means for continuously forming, on an intermediate transfer belt , a first detection pattern including a plurality of patches for detecting relative misregistration amounts of developer images of a plurality of colors, and a second detection pattern including a plurality of patches for detecting a density of each of the plurality of colors; detection means for detecting the first detection pattern and the second detection pattern ; and control means for controlling registration in accordance with a detection result of the first detection pattern detected by the detection means and controlling the density in accordance with a detection result of the second detection pattern detected by the detection means , wherein said control means causes a single developing means to form a first patch at a leading edge of a detection pattern formed on a front side among the first and second detection patterns , in a direction in which the detection patterns are moved by rotation of the intermediate transfer belt, and a last patch at a trailing edge of the detection pattern formed on the front side, or a first or last patch at one edge of a detection pattern formed on a rear side among the first and second detection patterns . forming means including a plurality of developing means for continuously forming, on an intermediate transfer belt , a first detection pattern including a plurality of patches for detecting relative misregistration amounts of developer images of a plurality of colors, and a second detection pattern including a plurality of patches for detecting a density of each of the plurality of colors; detection means for detecting the first detection pattern and the second detection pattern ; and control means for controlling registration in accordance with a detection result of the first detection pattern detected by the detection means and controlling the density in accordance with a detection result of the second detection pattern detected by the detection means , wherein said control means causes a single developing means to form a first patch at a leading edge of a detection pattern formed on a front side among the first and second detection patterns , in a direction in which the detection patterns are moved by rotation of the intermediate transfer belt, and a last patch at a trailing edge of the detection pattern formed on the front side, or a first or last patch at one edge of a detection pattern formed on a rear side among the first and second detection patterns .
A fluid handling cassette for use in a medical infusion system, the cassette comprising: a generally planar body having first and second pump chambers each formed as a depression in a first side of the body and a plurality of flowpaths for a fluid; a patient line port located at a first end of the body arranged for connection to a patient line , the patient line port being in valved fluid communication with a first opening of each of the first and second pump chambers via a first flowpath ; a drain line port located at the first end of the body arranged for connection to a drain line , the drain line port being in valved fluid communication with a second opening of each of the first and second pump chambers via a second flowpath ; a plurality of solution line ports located at a second end of the body opposite the first end, each of the solution line ports being in valved fluid communication with the first opening of each of the first and second pump chambers via the first flowpath ; and a flexible membrane attached to the first side of the body over the first and second pump chambers , portions of the membrane over the first and second pump chambers being arranged to be movable for movement of the fluid in the pump chambers . a generally planar body having first and second pump chambers each formed as a depression in a first side of the body and a plurality of flowpaths for a fluid; a patient line port located at a first end of the body arranged for connection to a patient line , the patient line port being in valved fluid communication with a first opening of each of the first and second pump chambers via a first flowpath ; a drain line port located at the first end of the body arranged for connection to a drain line , the drain line port being in valved fluid communication with a second opening of each of the first and second pump chambers via a second flowpath ; a plurality of solution line ports located at a second end of the body opposite the first end, each of the solution line ports being in valved fluid communication with the first opening of each of the first and second pump chambers via the first flowpath ; and a flexible membrane attached to the first side of the body over the first and second pump chambers , portions of the membrane over the first and second pump chambers being arranged to be movable for movement of the fluid in the pump chambers .
Solids separator for retaining and recirculating solids from a reactor mixture, comprising a flow-bearing sterilizable plastic bag or plastic bottle and, within the plastic bag or plastic bottle : - in the upper region, one or more passages/internals for withdrawing from a harvest stream collection region a harvest stream that is separated from the solids, - in the upper segment of a central region, a separation region having a separation area which during operation is inclined at an angle of 0° to 80° to the horizontal, - in the lower segment of the central region, one or more passages or internals for flow distribution of the reactor mixture , - in the lower region, a solids collection region that is tapered at the bottom for collecting the solids using gravity. - in the upper region, one or more passages/internals for withdrawing from a harvest stream collection region a harvest stream that is separated from the solids, - in the upper segment of a central region, a separation region having a separation area which during operation is inclined at an angle of 0° to 80° to the horizontal, - in the lower segment of the central region, one or more passages or internals for flow distribution of the reactor mixture , - in the lower region, a solids collection region that is tapered at the bottom for collecting the solids using gravity.
A switching power supply device comprising: a switching circuit that (S1 to S4) configured to convert DC input power into AC power by means of a switching operation; a transformer (T) having a primary winding (L1) and a secondary winding (L2, L21, L22),the primary winding of the transformer being supplied with the AC power; a first rectifier (D2, D21, D22) having a cathode and an anode, the cathode of the first rectifier being connected in series to a first end of the secondary winding of the transformer, the anode of the first rectifier being connected directly to a ground, a second end of the secondary winding being connected to an output of the switching power supply device via an output winding (L23), and the first rectifier being configured to rectify AC power induced in the secondary winding of the transformer into direct current power; a second rectifier (D3, D31, D32) having a cathode and an anode, the anode of the second rectifier being connected in parallel between the secondary winding of the transformer and the cathode of the first rectifier; a load (F) connected in series to the cathode of the second rectifier; and a capacitor (C) having a first end and a second end, the first end of the capacitor being connected in parallel between the cathode of the second rectifier and the load, the second end of the capacitor being connected directly to the ground, the capacitor being configured to absorb a surge generated in the first rectifier and function as an auxiliary power supply for the load. a switching circuit that (S1 to S4) configured to convert DC input power into AC power by means of a switching operation; a transformer (T) having a primary winding (L1) and a secondary winding (L2, L21, L22),the primary winding of the transformer being supplied with the AC power; a first rectifier (D2, D21, D22) having a cathode and an anode, the cathode of the first rectifier being connected in series to a first end of the secondary winding of the transformer, the anode of the first rectifier being connected directly to a ground, a second end of the secondary winding being connected to an output of the switching power supply device via an output winding (L23), and the first rectifier being configured to rectify AC power induced in the secondary winding of the transformer into direct current power; a second rectifier (D3, D31, D32) having a cathode and an anode, the anode of the second rectifier being connected in parallel between the secondary winding of the transformer and the cathode of the first rectifier; a load (F) connected in series to the cathode of the second rectifier; and a capacitor (C) having a first end and a second end, the first end of the capacitor being connected in parallel between the cathode of the second rectifier and the load, the second end of the capacitor being connected directly to the ground, the capacitor being configured to absorb a surge generated in the first rectifier and function as an auxiliary power supply for the load.
Rotary feedthrough for a transport device comprising a rotary object carrier which comprises object carrier elements (6.1, 6.2, 6.3, 6.4) arranged so as to be distributed around the circumference, of which at least one object carrier element is arranged on the object carrier so as to be displaceable relative to the object carrier on a circular path or can be locked in place on the object carrier, the rotary feedthrough comprising a stationary component having one or more media inputs (20.1, 20.2, 20.3) for providing one or more media to supply one or more actuator units (12.1, 12.2; 18.1, 18.2) of an object carrier element (6.1, 6.2), characterised in that the rotary feedthrough comprises a plurality of components (24.1, 24.2, 24.3, 24.4) which are rotatable independently of one another about a common central axis relative to the stationary component and each have one or more media outputs (25.1, 25.2), the stationary component and the rotary components (24.1, 24.2, 24.3, 24.4) being designed such that a media connection is formed between a media input of the stationary component and a media output of the rotary component, or a plurality of media inputs (20.1, 20.2, 20.3) of the stationary component and a plurality of media outputs (25.1, 25.2) of the rotary components (24.1, 24.2, 24.3, 24.4).
A machine tool comprising: a main spindle configured to rotate a workpiece about a shaft center (C1) thereof; a tool configured to process the workpiece ; a feeder configured to move the tool ; an input receiver configured to receive an input regarding an eccentric distance D and a radius R; and a controller configured to control the movement by the feeder such as to set a virtual circle (V1) having a radius of the distance D the input receiver receives, to set an offset virtual circle (V2) in which a center of the virtual circle (V1) is offset from the shaft center (C1) of the workpiece by the radius R the input receiver receives in the radial direction of the workpiece , and to move the tool along a circumference of the offset virtual circle (V2) in relation to a rotation of the workpiece by the main spindle , wherein the machine tool processes an eccentric portion having the radius R at a position from the shaft center (C1) of the workpiece by the distance D, characterized in that the controller is configured to set a second offset virtual circle (V2') having a radius of the distance D and a center (C2') at a position offset from the shaft center (C1) by a radius (R'), and to control the feeder such that a cutting edge of the tool turns or moves along a circumference of the second offset virtual circle (V2') after terminating the process of the workpiece and before stopping the rotation of the workpiece and the movement of the tool . a main spindle configured to rotate a workpiece about a shaft center (C1) thereof; a tool configured to process the workpiece ; a feeder configured to move the tool ; an input receiver configured to receive an input regarding an eccentric distance D and a radius R; and a controller configured to control the movement by the feeder such as to set a virtual circle (V1) having a radius of the distance D the input receiver receives, to set an offset virtual circle (V2) in which a center of the virtual circle (V1) is offset from the shaft center (C1) of the workpiece by the radius R the input receiver receives in the radial direction of the workpiece , and to move the tool along a circumference of the offset virtual circle (V2) in relation to a rotation of the workpiece by the main spindle , wherein the machine tool processes an eccentric portion having the radius R at a position from the shaft center (C1) of the workpiece by the distance D, characterized in that the controller is configured to set a second offset virtual circle (V2') having a radius of the distance D and a center (C2') at a position offset from the shaft center (C1) by a radius (R'), and to control the feeder such that a cutting edge of the tool turns or moves along a circumference of the second offset virtual circle (V2') after terminating the process of the workpiece and before stopping the rotation of the workpiece and the movement of the tool .
A spinal curve modulation system for treating spinal curvature along a treatment region of the spine, wherein the system comprises: a flexible tether (104; 504) of sufficient length to extend across the treatment region of the spine including across at least three adjacent vertebral bodies in a cranial-caudal direction; at least one first bone anchor configured to be fixed to a first vertebra and to an end of the flexible tether (104; 504); a tether tensioning unit (99; 500) comprising a tether interface (103; 502) and a drive mechanism operatively linked to the tether interface (103; 502) to adjust tension in the flexible tether; at least one second bone anchor configured to fix the tether tensioning unit (99; 500) to a vertebra across the treatment region from at said at least one first bone anchor; and at least one tether guide having a bone anchor configured to be fixed to a vertebra body and a guide portion configured to slidably receive the flexible tether between said at least one first bone anchor and said at least one second bone anchor; wherein said tether tensioning unit (99; 500) is actuatable to adjust tension in the flexible tether without surgically exposing the flexible tether or said at least one first bone anchor. a flexible tether (104; 504) of sufficient length to extend across the treatment region of the spine including across at least three adjacent vertebral bodies in a cranial-caudal direction; at least one first bone anchor configured to be fixed to a first vertebra and to an end of the flexible tether (104; 504); a tether tensioning unit (99; 500) comprising a tether interface (103; 502) and a drive mechanism operatively linked to the tether interface (103; 502) to adjust tension in the flexible tether; at least one second bone anchor configured to fix the tether tensioning unit (99; 500) to a vertebra across the treatment region from at said at least one first bone anchor; and at least one tether guide having a bone anchor configured to be fixed to a vertebra body and a guide portion configured to slidably receive the flexible tether between said at least one first bone anchor and said at least one second bone anchor; wherein said tether tensioning unit (99; 500) is actuatable to adjust tension in the flexible tether without surgically exposing the flexible tether or said at least one first bone anchor.
A method for determining operational status of a chromatography column (1; 39, 47, 59; 107, 109, 111, 113), comprising: - detecting a feed signal (21; 201) representative of the composition of a feed material provided to the inlet of the column by detecting the UV absorbance in the feed material, - detecting an effluent signal (23; 203, 205, 207, 209) representative of the composition of the effluent from the column; - using the feed signal and the effluent signal to determine operational status of the column, wherein the feed signal is generated using a first UV detector having a first UV cell pathlength operating at a first UV wavelength and the effluent signal is generated using a second UV detector having a second UV cell pathlength operating at a second UV wavelength, the method being characterized in that it comprises: - determining a first threshold value based on the detected UV absorbance in the feed material, and - selecting the first UV cell pathlength and/or first wavelength based on the first threshold value. - detecting a feed signal (21; 201) representative of the composition of a feed material provided to the inlet of the column by detecting the UV absorbance in the feed material, - detecting an effluent signal (23; 203, 205, 207, 209) representative of the composition of the effluent from the column; - using the feed signal and the effluent signal to determine operational status of the column, wherein the feed signal is generated using a first UV detector having a first UV cell pathlength operating at a first UV wavelength and the effluent signal is generated using a second UV detector having a second UV cell pathlength operating at a second UV wavelength, the method being characterized in that it comprises: - determining a first threshold value based on the detected UV absorbance in the feed material, and - selecting the first UV cell pathlength and/or first wavelength based on the first threshold value.
A method of wireless communication performed by a user equipment, comprising: entering a connected mode by establishing a radio resource control, RRC, connection with a base station; determining a connected mode extended discontinuous reception, DRX, configuration comprising a low power period that is longer than a full system frame number, SFN, cycle; initiating a default DRX inactivity timer and an extended DRX inactivity timer, wherein a period of the extended DRX inactivity timer is longer than a period of the default DRX inactivity timer; determining that the extended DRX inactivity timer has expired; deactivating at least one radio component while in the connected mode for the low power period based at least in part on the connected mode extended DRX configuration and on the expiration of the extended DRX inactivity timer; and activating the at least one radio component after the low power period based at least in part on the connected mode extended DRX configuration. entering a connected mode by establishing a radio resource control, RRC, connection with a base station; determining a connected mode extended discontinuous reception, DRX, configuration comprising a low power period that is longer than a full system frame number, SFN, cycle; initiating a default DRX inactivity timer and an extended DRX inactivity timer, wherein a period of the extended DRX inactivity timer is longer than a period of the default DRX inactivity timer; determining that the extended DRX inactivity timer has expired; deactivating at least one radio component while in the connected mode for the low power period based at least in part on the connected mode extended DRX configuration and on the expiration of the extended DRX inactivity timer; and activating the at least one radio component after the low power period based at least in part on the connected mode extended DRX configuration.
A method of wireless communication at a User Equipment, UE (104; 182; 350; 2050), comprising: receiving a configuration for a reception cycle; and determining whether to monitor for a wake up signal, WUS, for a UE group including the UE during a WUS time resource of the reception cycle; wherein the UE determines whether to monitor for the WUS during the WUS time resource based on a duration of a time gap (608; 708; 808; 908) between WUS resources and an associated paging occasion; characterized in that a gap period between the WUS time resource and the associated paging occasion changes between a first paging occasion and a second paging occasion. receiving a configuration for a reception cycle; and determining whether to monitor for a wake up signal, WUS, for a UE group including the UE during a WUS time resource of the reception cycle; wherein the UE determines whether to monitor for the WUS during the WUS time resource based on a duration of a time gap (608; 708; 808; 908) between WUS resources and an associated paging occasion; characterized in that a gap period between the WUS time resource and the associated paging occasion changes between a first paging occasion and a second paging occasion.
A method for preparing a catalyst comprising: A) obtaining a solid component on which silver has been deposited, comprising: from 10 wt% to 70 wt% silver, from 0.0 wt% to 5.0 wt% of a promoter selected from the group consisting of rhenium, and molybdenum; from 30 wt% to 90 wt% of a solid component selected from the group consisting of calcium titanate, magnesium titanate, barium titanate, strontium titanate, calcium carbonate, magnesium carbonate, barium carbonate, and strontium carbonate; B) contacting the solid component of step A) with a first salt and a second salt, wherein the first salt is potassium nitrate and the second salt is selected from gallium, silver, gold, barium, strontium, and magnesium salt, under conditions sufficient to cause deposition of both metals; and C) depositing from 0.05 wt% to 2.5 wt% of the second salt and 0.05 wt% to 4.0 wt% of the first salt onto the solid component; Wherein the catalyst is dried at a temperature from 100 °C to 200 °C and wherein the catalyst is calcinated at a temperature from 250°C to 500 °C. A) obtaining a solid component on which silver has been deposited, comprising: from 10 wt% to 70 wt% silver, from 0.0 wt% to 5.0 wt% of a promoter selected from the group consisting of rhenium, and molybdenum; from 30 wt% to 90 wt% of a solid component selected from the group consisting of calcium titanate, magnesium titanate, barium titanate, strontium titanate, calcium carbonate, magnesium carbonate, barium carbonate, and strontium carbonate; from 10 wt% to 70 wt% silver, from 0.0 wt% to 5.0 wt% of a promoter selected from the group consisting of rhenium, and molybdenum; from 30 wt% to 90 wt% of a solid component selected from the group consisting of calcium titanate, magnesium titanate, barium titanate, strontium titanate, calcium carbonate, magnesium carbonate, barium carbonate, and strontium carbonate; B) contacting the solid component of step A) with a first salt and a second salt, wherein the first salt is potassium nitrate and the second salt is selected from gallium, silver, gold, barium, strontium, and magnesium salt, under conditions sufficient to cause deposition of both metals; and C) depositing from 0.05 wt% to 2.5 wt% of the second salt and 0.05 wt% to 4.0 wt% of the first salt onto the solid component;