mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE , in a wireless communication network for congestion control during sidelink transmissions, the method comprising: - determining that the UE is actively receiving in a subset of resources during a time interval; - estimating a congestion control metric for the time interval during which the UE is actively receiving in the subset of resources; and - selecting one or more transmission parameters to use for sidelink transmissions in accordance with the estimated congestion control metric. - determining that the UE is actively receiving in a subset of resources during a time interval; - estimating a congestion control metric for the time interval during which the UE is actively receiving in the subset of resources; and - selecting one or more transmission parameters to use for sidelink transmissions in accordance with the estimated congestion control metric.
Assembly for coupling fluid conveying pipes, comprising a connecting device and a tool for removing the device, the connecting device including a tubular body having at least one end section (2.1), and a tubular sealed connection insert arranged to be secured in a sealed manner to a pipe (T), the tubular insert being engaged in the end section (2.1) of the tubular body , the body including at least one retaining lug elastically applied behind an external stepped portion of the tubular insert to oppose extraction of the tubular insert, at least one annular sealing element extending between the tubular insert and the end section of the body, characterized in that the tool comprises a flexible blade and the body comprises a passage transverse to the axis of the tubular body , said transverse passage opening out on the one hand outside the body and on the other hand on one side of the retaining lug to allow insertion of the blade between the tubular insert and the retaining lug to raise the retaining lug over its width in order to free the stepped portion from the retaining lug and allow the extraction of the tubular insert.
A valve for a fluid, comprising a valve body and a valve seat ; comprising a fluid chamber for receiving the fluid; and comprising a holding element , wherein the valve seat encloses a fluid passage for passage of the fluid out of the fluid chamber , wherein the valve body and the holding element are in operative connection with the fluid received in the fluid chamber , wherein the holding element exerts a holding force on the valve body , the holding force acting on the valve seat in the closing direction, wherein an effective surface facing the fluid chamber is associated with the valve body , wherein in the event that the fluid received in the fluid chamber acts on the effective surface of the valve body with a force or a pressure above a limit value predefined for the valve body , the valve body moves away from the valve seat , wherein an effective surface facing the fluid chamber is associated with the holding element , characterized in that in the event that the fluid received in the fluid chamber acts on the effective surface of the holding element with a force or a pressure above a limit value predefined for the holding element , the holding force acting on the valve body decreases, and wherein the valve body and/or the holding element is/are configured and/or arranged such that the fluid received in the fluid chamber acts on the holding element more strongly than on the valve body . comprising a valve body and a valve seat ; comprising a fluid chamber for receiving the fluid; and comprising a holding element , wherein the valve seat encloses a fluid passage for passage of the fluid out of the fluid chamber , wherein the valve body and the holding element are in operative connection with the fluid received in the fluid chamber , wherein the holding element exerts a holding force on the valve body , the holding force acting on the valve seat in the closing direction, wherein an effective surface facing the fluid chamber is associated with the valve body , wherein in the event that the fluid received in the fluid chamber acts on the effective surface of the valve body with a force or a pressure above a limit value predefined for the valve body , the valve body moves away from the valve seat , wherein an effective surface facing the fluid chamber is associated with the holding element , characterized in that in the event that the fluid received in the fluid chamber acts on the effective surface of the holding element with a force or a pressure above a limit value predefined for the holding element , the holding force acting on the valve body decreases, and wherein the valve body and/or the holding element is/are configured and/or arranged such that the fluid received in the fluid chamber acts on the holding element more strongly than on the valve body .
An opposed-piston engine comprising a compressor disposed in tandem with a supercharger in a two-stage pumping configuration coupled to a cylinder intake port of the engine, a mass airflow sensor disposed upstream of the supercharger in the pumping configuration, an engine control unit and an air handling device to change the mass air flow through the supercharger characterized by : the engine control unit being programmed to: estimate a mass airflow through the supercharger and compare the estimated mass airflow through the supercharger with a measured mass airflow obtained from the mass airflow sensor, and, issue an actuating command such as to cause the air handling device to change the mass airflow through the supercharger, in response to the comparison; wherein, if the comparison indicates that a difference between the estimated and measured mass airflows is zero, or within a predicted difference range, the engine control unit is programmed to determine that the mass airflow sensor is operating normally and the actuating command issued sets the supercharger to a normal operational charge airflow level; and, if the comparison indicates that the difference between the estimated and measured mass airflows is non-zero, or outside of a predicted difference range, the engine control unit is programmed to determine that the mass airflow sensor is malfunctioning and the actuating command issued sets the supercharger to a commanded charge air flow level for degraded or abnormal operation. estimate a mass airflow through the supercharger and compare the estimated mass airflow through the supercharger with a measured mass airflow obtained from the mass airflow sensor, and, issue an actuating command such as to cause the air handling device to change the mass airflow through the supercharger, in response to the comparison; wherein, if the comparison indicates that a difference between the estimated and measured mass airflows is zero, or within a predicted difference range, the engine control unit is programmed to determine that the mass airflow sensor is operating normally and the actuating command issued sets the supercharger to a normal operational charge airflow level; and, if the comparison indicates that the difference between the estimated and measured mass airflows is non-zero, or outside of a predicted difference range, the engine control unit is programmed to determine that the mass airflow sensor is malfunctioning and the actuating command issued sets the supercharger to a commanded charge air flow level for degraded or abnormal operation.
A supercontinuum radiation source comprising: a radiation source operable to produce a pulsed radiation beam ; an optical amplifier configured to receive the pulsed radiation beam and increase an intensity of the pulsed radiation beam so as to produce an amplified pulsed radiation beam , the optical amplifier comprising a gain medium and a pump power source ; and an optical medium configured to receive the amplified pulsed radiation beam and to broaden a spectrum of that amplified pulsed radiation beam so as to generate a supercontinuum radiation beam (Bout); wherein the pump power source of the optical amplifier is configured to supply a pump radiation beam to the gain medium , an intensity of the pump radiation beam being periodic and having a pump frequency, characterized in that the pump frequency is an integer multiple of the frequency of the pulsed radiation beam . a radiation source operable to produce a pulsed radiation beam ; an optical amplifier configured to receive the pulsed radiation beam and increase an intensity of the pulsed radiation beam so as to produce an amplified pulsed radiation beam , the optical amplifier comprising a gain medium and a pump power source ; and an optical medium configured to receive the amplified pulsed radiation beam and to broaden a spectrum of that amplified pulsed radiation beam so as to generate a supercontinuum radiation beam (Bout); wherein the pump power source of the optical amplifier is configured to supply a pump radiation beam to the gain medium , an intensity of the pump radiation beam being periodic and having a pump frequency, characterized in that the pump frequency is an integer multiple of the frequency of the pulsed radiation beam .
A combination of a disinfectant and a coccidiostat for use in controlling disease in chickens and further providing enhancement of the growth thereof wherein said disinfectant including a phenol derivate, said phenol derivate being present in said disinfectant in the range of five to thirty percent; said disinfectant including organic solvents, said organic solvents being present in said disinfectant in the range of 10 to 30 percent; said disinfectant including organic/inorganic acids, said organic/inorganic acids being present in said disinfectant in the range of 20 to 40 percent; said disinfectant including an anionic surfactant, said anionic surfactant being present in said disinfectant in the range of 5 to 10 percent; said coccidiostat having a water extract of Salvia libanotica, said water extract of Salvia libanotica being present within the coccidiostat in the range of 2 to 10 percent; wherein the coccidiostat further includes eucalyptus oil between the range of 5 to 15%; wherein the coccidiostat further includes peppermint oil, said peppermint oil being present in said coccidiostat in the range of 4 to 12% and wherein said disinfectant is applied to an area in which chickens will be raised; said coccidiostat is diluted in drinking water to be provided to chickens during the raising process.
A print head for applying a coating product to an object to be coated, the print head comprising a body wherein are fitted out: - a plurality of nozzles each comprising an ejection hole and an outlet channel opening into an ejection zone of the coating product through the ejection hole ; - a feeder circuit for the coating product, connected to the nozzle ; the print head further comprising a maintenance circuit for conveying a maintenance fluid, the maintenance circuit extending inside the body to the ejection zone of the nozzle , and comprising a first internal channel ; opening into the ejection zone of at least one nozzle , characterized in that the maintenance circuit comprises a plurality of first internal channels (131; 138), each first internal channel (131; 138) opening into the ejection zone of only one nozzle associated with the first internal channel (131; 138), the number of first internal channels (131; 138) being equal to the number of nozzles . - a plurality of nozzles each comprising an ejection hole and an outlet channel opening into an ejection zone of the coating product through the ejection hole ; - a feeder circuit for the coating product, connected to the nozzle ; the print head further comprising a maintenance circuit for conveying a maintenance fluid, the maintenance circuit extending inside the body to the ejection zone of the nozzle , and comprising a first internal channel ; opening into the ejection zone of at least one nozzle , characterized in that the maintenance circuit comprises a plurality of first internal channels (131; 138), each first internal channel (131; 138) opening into the ejection zone of only one nozzle associated with the first internal channel (131; 138), the number of first internal channels (131; 138) being equal to the number of nozzles .
A tissue paper product, such as toilet paper or household towel, wherein the tissue paper product comprises at least three plies including a top ply, a bottom ply, and an inner ply located between the top ply and the bottom ply, the top ply and the bottom ply being outermost plies of the tissue paper product, a basis weight of the tissue paper product being in a range of 30 to 150, optionally 30 to 100 g/m 2 , or 35 to 80 g/m 2 , or 40 to 65 g/m 2 , wherein the top ply has been embossed and comprises at least two types of embossments including first embossments with a first height and second embossments with a second height, the first height being larger than the second height, wherein the inner ply has not been embossed, wherein the bottom ply has been embossed, the top ply, the inner ply, and the bottom ply are ply-bonded with an adhesive, such as a lamination glue, and/or water and/or mechanical bonding, such as edge embossing, wherein at least one of the top ply and the bottom ply has been embossed by a heated embossing roll. wherein the tissue paper product comprises at least three plies including a top ply, a bottom ply, and an inner ply located between the top ply and the bottom ply, the top ply and the bottom ply being outermost plies of the tissue paper product, a basis weight of the tissue paper product being in a range of 30 to 150, optionally 30 to 100 g/m 2 , or 35 to 80 g/m 2 , or 40 to 65 g/m 2 , wherein the top ply has been embossed and comprises at least two types of embossments including first embossments with a first height and second embossments with a second height, the first height being larger than the second height, wherein the inner ply has not been embossed, wherein the bottom ply has been embossed, the top ply, the inner ply, and the bottom ply are ply-bonded with an adhesive, such as a lamination glue, and/or water and/or mechanical bonding, such as edge embossing, wherein at least one of the top ply and the bottom ply has been embossed by a heated embossing roll.
A power tool comprising: a housing ; a motor located in the housing and having a drive shaft configured for rotation about a longitudinal axis (A); an actuator operatively coupled to the drive shaft and configured to convert the rotation of the drive shaft to an oscillatory displacement in a plane, the actuator including an eccentric mechanism coupled to the drive shaft to convert drive shaft rotation to oscillatory displacement, and a link extending from said eccentric mechanism away from said tool housing and below said longitudinal axis (A); a tool holder connected to the link of the actuator and configured to move in response to movement of the actuator ; and a working tool supported by the tool holder , the working tool having a working surface, wherein the tool holder and the working tool are configured so that the working tool is supported by said tool holder with a working end of the working tool being substantially coplanar with the longitudinal axis (A) of the motor drive shaft , wherein the working tool is mounted to the actuator so that the side-to-side motion of the actuator is conveyed to the working tool , and wherein said link defines a bore therethrough, and wherein said tool holder is engaged within said bore with the working surface of the working tool being positioned above said bore relative to said longitudinal axis (A). a housing ; a motor located in the housing and having a drive shaft configured for rotation about a longitudinal axis (A); an actuator operatively coupled to the drive shaft and configured to convert the rotation of the drive shaft to an oscillatory displacement in a plane, the actuator including an eccentric mechanism coupled to the drive shaft to convert drive shaft rotation to oscillatory displacement, and a link extending from said eccentric mechanism away from said tool housing and below said longitudinal axis (A); a tool holder connected to the link of the actuator and configured to move in response to movement of the actuator ; and a working tool supported by the tool holder , the working tool having a working surface, wherein the tool holder and the working tool are configured so that the working tool is supported by said tool holder with a working end of the working tool being substantially coplanar with the longitudinal axis (A) of the motor drive shaft , wherein the working tool is mounted to the actuator so that the side-to-side motion of the actuator is conveyed to the working tool , and wherein said link defines a bore therethrough, and wherein said tool holder is engaged within said bore with the working surface of the working tool being positioned above said bore relative to said longitudinal axis (A).
A method for controlling a liquid ejection apparatus including an ejection port that ejects a liquid, a pressure chamber communicating with the ejection port and having therein an energy generating element to generate energy for ejecting the liquid, first and second flow paths communicating with the pressure chamber to supply the liquid to the pressure chamber as a liquid circulation and to collect the liquid from the pressure chamber, a negative pressure generating section configured to generate a negative pressure, a negative pressure control section using the negative pressure generated by the negative pressure generating section to adjust a pressure of the liquid flowing through one of the first and second flow paths that is connected, and a supply control section (401; 1001; 1020) configured to control the supply of the liquid to the pressure chamber and the stop of the supply, the method comprising the steps of: generating energy for ejecting the liquid by the energy generating element ; supplying the liquid to the pressure chamber as a liquid circulation and collecting the liquid from the pressure chamber by the first and second flow paths ; generating a negative pressure by the negative pressure generating section ; using the negative pressure generated by the negative pressure generating section by the negative pressure control section to adjust the pressure of the liquid flowing through one of the first and second flow paths ; controlling the supply of the liquid to the pressure chamber and the stop of the supply by the supply control section (401; 1001; 1020) and characterized by stopping a flow of the liquid by stopping the supply of the liquid by the supply control section (401; 1001; 1020) so that the liquid circulation is stopped, and then stopping the negative pressure generating section so that a negative pressure is maintained downstream of the negative pressure control section even after stopping the liquid circulation. generating energy for ejecting the liquid by the energy generating element ; supplying the liquid to the pressure chamber as a liquid circulation and collecting the liquid from the pressure chamber by the first and second flow paths ; generating a negative pressure by the negative pressure generating section ; using the negative pressure generated by the negative pressure generating section by the negative pressure control section to adjust the pressure of the liquid flowing through one of the first and second flow paths ; controlling the supply of the liquid to the pressure chamber and the stop of the supply by the supply control section (401; 1001; 1020) and characterized by stopping a flow of the liquid by stopping the supply of the liquid by the supply control section (401; 1001; 1020) so that the liquid circulation is stopped, and then stopping the negative pressure generating section so that a negative pressure is maintained downstream of the negative pressure control section even after stopping the liquid circulation.
A tablet printing apparatus (S), comprising: a conveyor configured to convey tablets (T) sequentially supplied thereto while sucking and holding the tablets; a print head (H) located to face the conveyor, and configured to eject ink to the tablet conveyed by the conveyor to perform printing; a detector located on an upstream side of the print head in conveyance direction of the tablet, and configured to detect position and posture of the tablet sucked and held on the conveyor; and a suction force adjusting device configured to reduce a suction force applied to the tablet, wherein the suction force adjusting device is further configured to reduce a suction force, which is applied to the tablet in a first region between a first conveyance position and a second conveyance position, to be lower than a suction force applied to the tablet at conveyance positions in front of and behind the first region, wherein the suction force adjusting device is further configured to not significantly change the suction force in the first region such that the position and the posture of the tablet do not change, and the first conveyance position is a predetermined conveyance position between a conveyance position where the tablet is supplied to the conveyor and a predetermined conveyance position before the tablet passes through the detector, and the second conveyance position is a conveyance position where the tablet passes through under the print head. a conveyor configured to convey tablets (T) sequentially supplied thereto while sucking and holding the tablets; a print head (H) located to face the conveyor, and configured to eject ink to the tablet conveyed by the conveyor to perform printing; a detector located on an upstream side of the print head in conveyance direction of the tablet, and configured to detect position and posture of the tablet sucked and held on the conveyor; and a suction force adjusting device configured to reduce a suction force applied to the tablet, wherein the suction force adjusting device is further configured to reduce a suction force, which is applied to the tablet in a first region between a first conveyance position and a second conveyance position, to be lower than a suction force applied to the tablet at conveyance positions in front of and behind the first region, wherein the suction force adjusting device is further configured to not significantly change the suction force in the first region such that the position and the posture of the tablet do not change, and the first conveyance position is a predetermined conveyance position between a conveyance position where the tablet is supplied to the conveyor and a predetermined conveyance position before the tablet passes through the detector, and the second conveyance position is a conveyance position where the tablet passes through under the print head.