mhurhangee/ep-ind-claims huggingface dataset:
A method for feeding back data, performed by a base station, and comprising: configuring a control channel for a user equipment, UE, wherein the control channel is configured to bear feedback information of physical uplink shared channel, PUSCH, data, the PUSCH data is sent by the UE; and sending the feedback information to the UE via the control channel, characterized in that configuring the control channel for the UE comprises: agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data. configuring a control channel for a user equipment, UE, wherein the control channel is configured to bear feedback information of physical uplink shared channel, PUSCH, data, the PUSCH data is sent by the UE; and sending the feedback information to the UE via the control channel, characterized in that configuring the control channel for the UE comprises: agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data. agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data.
A method executed at a slave system, connected to a master system, via a communication system, for reacting on an environment, controlled by the master system, the method comprising: - receiving (3:10) a control message, initiated from the master system, the control message comprising control data, associated with the environment, the control message further comprising a time stamp, indicative of a first master model version of the environment on which the master system has based the control data; - initiating applying (3:20) of the control data to a slave model version of the environment identified as a first slave model version of the environment, based on the time stamp, resulting in a first control output, and to a second slave model version of the environment, being the slave model version most recently used by the slave system, resulting in a second control output, wherein the master and slave model versions are model versions of at least one device, controllable from the master system, and of the surroundings of the at least one controllable device, and - initiating a first reaction (3:40a) on the environment according to the control data, in case a discrepancy between the first control output and the second control output is below a first threshold value, or - initiating a second reaction (3:40b) on the environment, according to the control data in combination with rules applicable to the slave system, in case a discrepancy between the first control output and the second control output exceeds the first threshold value. - receiving (3:10) a control message, initiated from the master system, the control message comprising control data, associated with the environment, the control message further comprising a time stamp, indicative of a first master model version of the environment on which the master system has based the control data; - initiating applying (3:20) of the control data to a slave model version of the environment identified as a first slave model version of the environment, based on the time stamp, resulting in a first control output, and to a second slave model version of the environment, being the slave model version most recently used by the slave system, resulting in a second control output, wherein the master and slave model versions are model versions of at least one device, controllable from the master system, and of the surroundings of the at least one controllable device, and - initiating a first reaction (3:40a) on the environment according to the control data, in case a discrepancy between the first control output and the second control output is below a first threshold value, or - initiating a second reaction (3:40b) on the environment, according to the control data in combination with rules applicable to the slave system, in case a discrepancy between the first control output and the second control output exceeds the first threshold value.
A percolation filtering device comprising a divider element which divides the device into a top tank, for collecting water to be filtered, and a bottom tank, for collecting the filtered water, the two tanks (4a,b) communicating with each other through a channel defined in the divider element which forms a seat for receiving a filtering cartridge, in which there is defined a valve passage in the divider element housing a flow shut-off valve (15, 16) suitable for selectively allowing/preventing the passage of liquid between the top tank and the bottom tank, said flow shut-off valve (15, 16) comprising a valve member movable between an open and a closed position and comprising a manoeuvring arm for the purpose of bringing the valve member into the open position, wherein said valve member can be actuated into the open position by inserting an enabler element inside the valve passage, the passage being arranged, when in use, downstream of the filtering cartridge, the valve passage comprising a radial extension, secured to the passage and arranged upstream of the valve member, characterized in that said extension is shaped as a segment with a rectilinear development such that it can be accommodated inside a complementary shaped notch formed in the enabler element, said extension being developed from an inner wall of the valve passage in a radial direction towards an inner region of the valve passage without interfering with the movement of said valve member between said open and closed positions, the radial extension being extended through at least one section in a position adjacent to the manoeuvring arm and arranged in such a way as not to prevent the manoeuvring arm from oscillating for the purpose of bringing the valve member into the open position.
A crimping tool, comprising: a housing (30,34) adapted to receive an electrical battery; an electrical motor energizable by the electrical battery; a support (109,130) for supporting movement of a traction rod in relation to the housing; a first mechanical drive train (104,105,106,106a,1071) drivable by the motor to cause rotation of the traction rod about a longitudinal axis (X-X) of the traction rod in a screwing direction or an unscrewing direction; a second drive train (102,103,108,109,110,111,111a,111b,112,113,116,118,140) comprising a hydraulic pump (111,111a,111b,112,118) fluidly coupled to a piston chamber containing a traction piston wherein the traction piston is movable from an initial position in the piston chamber by way of fluid pressure from the pump to cause axial displacement of the traction rod towards the housing, wherein the pump of the second drive train is drivable by the motor to deliver fluid pressure to the piston chamber. a housing (30,34) adapted to receive an electrical battery; an electrical motor energizable by the electrical battery; a support (109,130) for supporting movement of a traction rod in relation to the housing; a first mechanical drive train (104,105,106,106a,1071) drivable by the motor to cause rotation of the traction rod about a longitudinal axis (X-X) of the traction rod in a screwing direction or an unscrewing direction; a second drive train (102,103,108,109,110,111,111a,111b,112,113,116,118,140) comprising a hydraulic pump (111,111a,111b,112,118) fluidly coupled to a piston chamber containing a traction piston wherein the traction piston is movable from an initial position in the piston chamber by way of fluid pressure from the pump to cause axial displacement of the traction rod towards the housing, wherein the pump of the second drive train is drivable by the motor to deliver fluid pressure to the piston chamber.
Device for mounting structures on a flat underlying surface or a flat plane or an underlying surface or plane having a slight incline or slight irregularities, having one or more weight elements for securing the position thereof, wherein the structures are carried by a carrier, characterized by a fastening clamp which consists of a thin-walled material strip from which fastening tabs having fastening holes are angled in a U-shaped manner and on the resulting base of which the weight element(s) are placed for weighting purposes, wherein the carrier rests on the weight element(s) with the entire weight of the structures and the carrier is able to be clamped securely to the device via the fastening tabs by means of known fastening means.
A method for tiling patterned areas, comprising: distributing a first volume of curable material between a first flexible patterned mold and a substrate, wherein when distributed the first volume tapers to depletion prior to fully covering the first mold; curing the first volume to form a first cured area; separating the first mold from the substrate, wherein the first cured area remains coupled with the substrate; distributing a second volume of curable material adjacent the first cured area between a second flexible patterned mold and the substrate, wherein when distributed the second volume (i) overlaps at least a portion of the first cured area to substantially fill the tapered portion of the first cured area to a pre-depletion thickness and (ii) is depleted prior to fully covering the second mold; curing the second volume to form a second cured area; and separating the second mold from the substrate, wherein the first and second cured areas remain coupled with the substrate, wherein the overlapped first and second cured areas result in a seam having a dimension of less than 20 micrometers. distributing a first volume of curable material between a first flexible patterned mold and a substrate, wherein when distributed the first volume tapers to depletion prior to fully covering the first mold; curing the first volume to form a first cured area; separating the first mold from the substrate, wherein the first cured area remains coupled with the substrate; distributing a second volume of curable material adjacent the first cured area between a second flexible patterned mold and the substrate, wherein when distributed the second volume (i) overlaps at least a portion of the first cured area to substantially fill the tapered portion of the first cured area to a pre-depletion thickness and (ii) is depleted prior to fully covering the second mold; curing the second volume to form a second cured area; and separating the second mold from the substrate, wherein the first and second cured areas remain coupled with the substrate, wherein the overlapped first and second cured areas result in a seam having a dimension of less than 20 micrometers.
A gelatin characterized in that a. it is soluble in aqueous medium and b. the first derivative of the gelatin's FTIR-ATR spectrum remains below zero within the 1440-1355 cm -1 spectral region a. it is soluble in aqueous medium and b. the first derivative of the gelatin's FTIR-ATR spectrum remains below zero within the 1440-1355 cm -1 spectral region
Stimulation device, comprising • a base body and • a rubber-elastic cover intended for contact with a body part of a user, which envelops the base body and comprises at least one reversibly deformable contact surface region, wherein • at least one shaping element designed to produce a locally limited deformation of the cover without deforming the base body is arranged movably on or in the base body relative to the base body, and • at least one actuating device which is operatively connected to the at least one shaping element for producing a movement of the at least one shaping element is arranged on or in the base body, wherein • the actuating device comprises an electric motor with a rotor shaft to which an eccentric is attached, • the shaping element comprises a pivotably mounted lever with two free ends (31, 32), wherein • a first end of the lever is operatively connected to the eccentric of the actuating device for converting a rotary movement of the rotor shaft into a pivoting movement of the lever, and • a second end of the lever acts in a deforming manner on the contact surface area, characterized in that the stimulation device comprises a control device arranged on or in the base body for controlling the electric motor, which is designed in such a way that the shaping element is always in the same position when the actuating device is switched off. • a base body and • a rubber-elastic cover intended for contact with a body part of a user, which envelops the base body and comprises at least one reversibly deformable contact surface region, wherein • at least one shaping element designed to produce a locally limited deformation of the cover without deforming the base body is arranged movably on or in the base body relative to the base body, and • at least one actuating device which is operatively connected to the at least one shaping element for producing a movement of the at least one shaping element is arranged on or in the base body, wherein • the actuating device comprises an electric motor with a rotor shaft to which an eccentric is attached, • the shaping element comprises a pivotably mounted lever with two free ends (31, 32), wherein • a first end of the lever is operatively connected to the eccentric of the actuating device for converting a rotary movement of the rotor shaft into a pivoting movement of the lever, and • a second end of the lever acts in a deforming manner on the contact surface area,
A flow path component, comprising: a flow path component body comprising a flow surface, the flow surface configured to be exposed to an air flow within a flow channel between an inlet and an outlet of the flow path component; and a plurality of antimicrobial nanoparticles embedded in the flow surface and at least partially exposed external to the flow surface within the flow channel forming a nanoscale texturing on the flow surface, the nanoscale texturing comprising a plurality of pointed/sharp substantially conical structures formed in polymer cure material, configured to perforate microbe cells between the antimicrobial nanoparticles embedded within the flow surface. a flow path component body comprising a flow surface, the flow surface configured to be exposed to an air flow within a flow channel between an inlet and an outlet of the flow path component; and a plurality of antimicrobial nanoparticles embedded in the flow surface and at least partially exposed external to the flow surface within the flow channel forming a nanoscale texturing on the flow surface, the nanoscale texturing comprising a plurality of pointed/sharp substantially conical structures formed in polymer cure material, configured to perforate microbe cells between the antimicrobial nanoparticles embedded within the flow surface.
An apparatus comprising: a display configured to render display content over a field of view; a glare system comprising a plurality of glare emitters and configured to render glare content in the field of view, wherein the glare system is configured to render the glare content at different positions across the field of view at different times while the display renders the display content; and a controller configured to control the position of the glare content rendered by the glare system. a display configured to render display content over a field of view; a glare system comprising a plurality of glare emitters and configured to render glare content in the field of view, wherein the glare system is configured to render the glare content at different positions across the field of view at different times while the display renders the display content; and a controller configured to control the position of the glare content rendered by the glare system.
A spring arm for accommodating a measuring instrument, having an oscillating crank, one end of which is designed for accommodating the measuring instrument and to the other end of which an articulated unit is associated, the articulated unit comprising a stationary base plate and a bearing housing which is mounted so as to be rotatable relative to the base plate, in the assembly or adjustment mode, about an axis of rotation (x) normal to the base plate and which is arranged on the oscillating crank, characterized in that the base plate and the bearing housing include, in at least one section, a toothed profile (22a, b) on the front faces (18a, b), which are aligned to each other, of the base plate and of the bearing housing, respectively.
A high-throughput system for processing biological material comprising, a tray that supports a functionally-closed fluid path subsystem, the subsystem comprising, a vessel for containing and enabling the biological material to separate into two or more distinct submaterials; one or more receptacles to receive one or more of the submaterials from the vessel for example waste filtrate or a target retentate; a filtration device; a conduit through which one or more submaterials are transported between at least the vessel and the filtration device; and a first engagement structure comprising one or more valves in fluid communication with the conduit for selectively directing the biological material or said one or more submaterials between the vessel, the filtration device, and the receptacles; the system further comprising a processing (14, 110) comprising, a pumping device for moving one or more of the submaterials between at least the vessel and the filtration device via the conduit; a second engagement structure for mating with the first engagement structure, the second engagement structure comprising a drive assembly for opening and closing the or each valve; a locking mechanism for at least temporarily holding the tray in a fixed position relative to the processing unit; and a control device that automatically starts and stops the pumping device in response to one or more commands and automatically controls the drive assembly to open and close the or each valve.
A method for determining an accurate amount of consumable in a print cartridge, wherein the print cartridge has a cartridge identification associated therewith and the print cartridge has an expected print yield that is different than an expected print yield of a standard yield cartridge manufactured for use in the printing device, the method comprising: determining that a print cartridge installed in a printing device has a cartridge identification associated therewith; determining one more characteristic of the print cartridge based upon the cartridge identification; monitoring communication by means of a peripheral device between a processor and the printing device to determine that the printing device has printed images, wherein the processor is located external to the printing device; determining an amount of consumable used to print the images; determining an accurate amount of remaining consumable based upon the amount of consumable used to print the images and the cartridge identification by means of the peripheral device; wherein the peripheral device is located external to the printing device; and wherein the print cartridge has a cartridge chip that is configured to communicate with the printing device and the cartridge identification is stored in a memory of the cartridge chip and wherein the cartridge identification is a serial number that is different than an original equipment manufacturer serial number. determining that a print cartridge installed in a printing device has a cartridge identification associated therewith; determining one more characteristic of the print cartridge based upon the cartridge identification; monitoring communication by means of a peripheral device between a processor and the printing device to determine that the printing device has printed images, wherein the processor is located external to the printing device; determining an amount of consumable used to print the images; determining an accurate amount of remaining consumable based upon the amount of consumable used to print the images and the cartridge identification by means of the peripheral device; wherein the peripheral device is located external to the printing device; and wherein the print cartridge has a cartridge chip that is configured to communicate with the printing device and the cartridge identification is stored in a memory of the cartridge chip and wherein the cartridge identification is a serial number that is different than an original equipment manufacturer serial number.
Tank container (10, 20, 30, 40), comprising: a tank (12, 22, 32, 43) comprising a cylinder body (121, 221, 321, 421) and two sealing heads (122, 222, 322, 422) configured to seal two end openings of the cylinder body (121, 221, 321, 421) respectively; a heat insulation and reflective layer (13, 23, 33, 43) disposed on the outside of the tank, wherein the heat insulation and reflective layer (13, 23, 33, 43)) covers at least an upper surface of the cylinder body (121, 221, 321, 421) comprising a top surface of the cylinder body and a part of side surface extending from the top surface, and the heat insulation and reflective layer (13, 23, 33, 43) covers at least one third of total area of the cylinder body; characterized in that the heat insulation and reflective layer comprises (13, 33) non-metal hollow microspheres (131, 331) with heat insulation and reflective function, the diameter of the non-metal hollow microspheres (131, 331) is between 5μm and 100μm, and the heat insulation and reflective layer (13, 23, 33, 43) further comprises resin matrix, in which the non-metal hollow microspheres (131, 331) are filled. a tank (12, 22, 32, 43) comprising a cylinder body (121, 221, 321, 421) and two sealing heads (122, 222, 322, 422) configured to seal two end openings of the cylinder body (121, 221, 321, 421) respectively; a heat insulation and reflective layer (13, 23, 33, 43) disposed on the outside of the tank, wherein the heat insulation and reflective layer (13, 23, 33, 43)) covers at least an upper surface of the cylinder body (121, 221, 321, 421) comprising a top surface of the cylinder body and a part of side surface extending from the top surface, and the heat insulation and reflective layer (13, 23, 33, 43) covers at least one third of total area of the cylinder body; characterized in that the heat insulation and reflective layer comprises (13, 33) non-metal hollow microspheres (131, 331) with heat insulation and reflective function, the diameter of the non-metal hollow microspheres (131, 331) is between 5μm and 100μm, and the heat insulation and reflective layer (13, 23, 33, 43) further comprises resin matrix, in which the non-metal hollow microspheres (131, 331) are filled.