mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid ejection device comprising an electronic controller and a fluid ejection assembly , the fluid ejection assembly comprising: a fluid slot ; a recirculation channel (208 - 212); a drop ejection element within the recirculation channel (208 - 212); a pump element to pump fluid to and from the fluid slot through the recirculation channel (208 - 212); and a first addressable drive circuit associated with the drop ejection element and a second addressable drive circuit associated with the pump element , the drive circuits capable of driving the drop ejection element and the pump element simultaneously, characterized by a drop energy boost module executable on the electronic controller to control an activation sequence of the drop ejection element and the pump element , as well as the time interval between such activations, to impart a boost of energy to the fluid drop generated whenever the drop ejection element is activated, wherein the drive circuits are configured to receive signals from the electronic controller to activate the drop ejection element and pump element , according to the activation sequence, within a programmed time interval of one another or simultaneously, so that the pump element is activated just prior to or simultaneously with activating the drop ejection element . a fluid slot ; a recirculation channel (208 - 212); a drop ejection element within the recirculation channel (208 - 212); a pump element to pump fluid to and from the fluid slot through the recirculation channel (208 - 212); and a first addressable drive circuit associated with the drop ejection element and a second addressable drive circuit associated with the pump element , the drive circuits capable of driving the drop ejection element and the pump element simultaneously, characterized by a drop energy boost module executable on the electronic controller to control an activation sequence of the drop ejection element and the pump element , as well as the time interval between such activations, to impart a boost of energy to the fluid drop generated whenever the drop ejection element is activated, wherein the drive circuits are configured to receive signals from the electronic controller to activate the drop ejection element and pump element , according to the activation sequence, within a programmed time interval of one another or simultaneously, so that the pump element is activated just prior to or simultaneously with activating the drop ejection element .
A terminal comprising: a receiving section configured to receive downlink control information, DCI; and a control section configured to control transmission of an uplink, UL, shared channel that is scheduled by the DCI, wherein the control section is configured to control timing for the transmission of the UL shared channel based on a reference value, the reference value being indicated by the DCI and information provided through higher layer signaling, wherein the control section is configured to control the transmission of the UL shared channel to be a retransmission of previously transmitted data in response to information included in the DCI, in a case where the information indicates that the UL shared channel does not comprise new data. a receiving section configured to receive downlink control information, DCI; and a control section configured to control transmission of an uplink, UL, shared channel that is scheduled by the DCI, wherein the control section is configured to control timing for the transmission of the UL shared channel based on a reference value, the reference value being indicated by the DCI and information provided through higher layer signaling, wherein the control section is configured to control the transmission of the UL shared channel to be a retransmission of previously transmitted data in response to information included in the DCI, in a case where the information indicates that the UL shared channel does not comprise new data.
Climbing handle comprising: - a handle body which has an opening ; and - a clamping body which is translationally and rotationally fixed in the opening , wherein - the climbing handle can be fastened to a climbing wall by means of the clamping body and a fastening means which interacts with the clamping body ; - the clamping body is positioned in the opening such that the clamping body projects on a rear side of the handle body ; - the clamping body has been retrofitted into the climbing handle; and - the clamping body is positioned by adhesively bonding same in the opening . - a handle body which has an opening ; and - a clamping body which is translationally and rotationally fixed in the opening , - the climbing handle can be fastened to a climbing wall by means of the clamping body and a fastening means which interacts with the clamping body ; - the clamping body is positioned in the opening such that the clamping body projects on a rear side of the handle body ; - the clamping body has been retrofitted into the climbing handle; and - the clamping body is positioned by adhesively bonding same in the opening .
An assembly (100; 200; 300; 400) forming a cap for a cosmetic product container, said assembly having a longitudinal axis (XX') along which there extend a first element (110; 210; 310; 410) intended to be mounted on the container and a second element (120; 220; 320; 420) detachably assembled around the first element (110; 210; 310; 410), - the first element (110; 210; 310; 410) comprising tabs (115; 215; 315; 415) which are radially elastically deformable for assembling/disassembling the second element (120; 220; 320; 420) on the first element (110; 210; 310; 410), said tabs (115; 215; 315; 415) cooperating, in the assembled position, with notches (126; 226; 326; 426) formed inside the second element (110; 210; 310; 410), and - said assembly (100; 200; 300; 400) also comprising additional release means (130; 230; 330; 430) which is movable between a first extreme position in which the tabs (115; 215; 315; 415) of the first element (110; 210; 310; 410) are engaged with the notches (126; 226; 326; 426) of the second element (120; 220; 320; 420) for assembling the first and second elements, and a second extreme position in which said tabs (115; 215; 315; 415) are disengaged radially from said notches (126; 226; 326; 426) for disassembling the first and second elements. - the first element (110; 210; 310; 410) comprising tabs (115; 215; 315; 415) which are radially elastically deformable for assembling/disassembling the second element (120; 220; 320; 420) on the first element (110; 210; 310; 410), said tabs (115; 215; 315; 415) cooperating, in the assembled position, with notches (126; 226; 326; 426) formed inside the second element (110; 210; 310; 410), and - said assembly (100; 200; 300; 400) also comprising additional release means (130; 230; 330; 430) which is movable between a first extreme position in which the tabs (115; 215; 315; 415) of the first element (110; 210; 310; 410) are engaged with the notches (126; 226; 326; 426) of the second element (120; 220; 320; 420) for assembling the first and second elements, and a second extreme position in which said tabs (115; 215; 315; 415) are disengaged radially from said notches (126; 226; 326; 426) for disassembling the first and second elements.
A method performed by a computing system for generating an allowed list of applications for clusters of machines, the method comprising: for each machine, identifying a set of executed applications that were executed by the machine, and dividing the executed-application set for each machine into a training set and a testing set; generating clusters of the machines; for each cluster of machines, creating an allowed list of applications for the cluster that includes the applications in the training set of the machines of the cluster, the allowed list indicating that only applications in the allowed list are allowed to be executed by the machines in the cluster; for each machine in the cluster, generating enforcement logs during enforcement of the allowed list, wherein the enforcement logs indicate the applications whose execution was allowed and the applications whose execution was blocked by the allowed list for the cluster; and analyzing the enforcement logs to determine whether to adjust the allowed list for the cluster, wherein the allowed list for the cluster is adjusted by removing an application from the allowed list that was never executed by at least one machine in the cluster or by adding an application to the allowed list that was blocked many times by at least one machine in the cluster. for each machine, identifying a set of executed applications that were executed by the machine, and dividing the executed-application set for each machine into a training set and a testing set; generating clusters of the machines; for each cluster of machines, creating an allowed list of applications for the cluster that includes the applications in the training set of the machines of the cluster, the allowed list indicating that only applications in the allowed list are allowed to be executed by the machines in the cluster; for each machine in the cluster, generating enforcement logs during enforcement of the allowed list, wherein the enforcement logs indicate the applications whose execution was allowed and the applications whose execution was blocked by the allowed list for the cluster; and analyzing the enforcement logs to determine whether to adjust the allowed list for the cluster, wherein the allowed list for the cluster is adjusted by removing an application from the allowed list that was never executed by at least one machine in the cluster or by adding an application to the allowed list that was blocked many times by at least one machine in the cluster.
An omnidirectional light emission LED lamp, comprising an electrical connector with a driver therein, a connecting piece connected to the electrical connector and translucent covers connected to the connecting piece , wherein the translucent covers include at least two translucent covers, and the plurality of translucent covers interconnect and enclose into an overall lampshade shape; a channel is enclosed between the translucent covers , openings at the two ends of the channel are in communication with the outside, the connecting piece is fixed on the translucent covers at at least one end of the channel , a cavity is formed within the connecting piece , the cavity of the connecting piece is in communication with the channel between the translucent covers , and ventilation holes in communication with the outside are provided on the connecting piece ; and the translucent covers have LED light-emitting elements fixed on them, the light-emitting surfaces of the LED light-emitting elements face to a chamber formed by the translucent covers, and the LED light-emitting elements are connected to the driver in the electrical connector through connecting lines, wherein the translucent covers are fixed and connected to the connecting piece at one end of the channel, the connecting piece is fixed to the top end of the electrical connector , the translucent covers are connected to the top of the connecting piece , the translucent covers enclose into a bulb shape, the top of the connecting piece has a through-hole in communication with the channel , and the ventilation holes are provided on the side surface of the connecting piece , characterized in that the connecting piece comprises a connecting portion connected to the electrical connector , a bottom cap fixed on the connecting portion and separating the electrical connector from a cavity within the connecting piece , and a top cap connected to the bottom cap to form the cavity , the ventilation holes are provided on the side circumferential surface of the bottom cap and evenly spaced along the circumferential surface, and the through-hole is provided on the top cap .
A timepiece part comprising: a base ; and a color toning layer provided on the base, wherein the color toning layer includes a first oxide film , a first metal film , a protective film , and a second oxide film , the first oxide film is provided between the base and the second oxide film , and between the first oxide film and the second oxide film , the first metal film and the protective film are provided in a presented order from a side facing the first oxide film, characterized in that the protective film is made of Al 2 O 3 . a base ; and a color toning layer provided on the base, wherein the color toning layer includes a first oxide film , a first metal film , a protective film , and a second oxide film , the first oxide film is provided between the base and the second oxide film , and between the first oxide film and the second oxide film , the first metal film and the protective film are provided in a presented order from a side facing the first oxide film, characterized in that the protective film is made of Al 2 O 3 .
A circuit applied to a biopotential acquisition system , comprising: an amplifier , for receiving input signals from two input electrodes of the biopotential acquisition system to generate differential output signals (Voutp, Voutn); an electrode mismatch compensation circuit , coupled to the amplifier and configured to receive the differential output signals (Voutp, Voutn) and to generate and output adjusted differential output signals (Voutp', Voutn') according to a compensation signal; an electrode mismatch detection circuit configured to detect the power line frequency component of the adjusted differential output signals (Voutp', Voutn') and to generate and output the compensation signal to the electrode mismatch compensation circuit ; an active current source , for providing a current to two input terminals of the circuit , wherein the two input terminals of the circuit are coupled to two input electrodes of the biopotential acquisition system ; and a feedback circuit , for generating a control signal to control the active current source according to the differential output signals (Voutp, Voutn), wherein the feedback circuit receives a common mode signal of the differential output signals (Voutp, Voutn)to generate the control signal to control the active current source . an amplifier , for receiving input signals from two input electrodes of the biopotential acquisition system to generate differential output signals (Voutp, Voutn); an electrode mismatch compensation circuit , coupled to the amplifier and configured to receive the differential output signals (Voutp, Voutn) and to generate and output adjusted differential output signals (Voutp', Voutn') according to a compensation signal; an electrode mismatch detection circuit configured to detect the power line frequency component of the adjusted differential output signals (Voutp', Voutn') and to generate and output the compensation signal to the electrode mismatch compensation circuit ; an active current source , for providing a current to two input terminals of the circuit , wherein the two input terminals of the circuit are coupled to two input electrodes of the biopotential acquisition system ; and a feedback circuit , for generating a control signal to control the active current source according to the differential output signals (Voutp, Voutn), wherein the feedback circuit receives a common mode signal of the differential output signals (Voutp, Voutn)to generate the control signal to control the active current source .
An environmental sensor for measuring a plurality of physical quantities associated with a surrounding environment, the sensor comprising: a plurality of sensor elements (4a - 4g) including an illuminance sensor and an acceleration sensor ; a moving detection unit configured to detect moving of the environmental sensor based on at least one of the physical quantities or a change in the at least one physical quantity, wherein the moving detection unit detects the moving of the environmental sensor when a change in an illuminance detected by the illuminance sensor is greater than or equal to a predetermined value before and after the acceleration sensor detects an acceleration greater than or equal to a predetermined value and/or a change in an acceleration within a predetermined range; and a moving response unit configured to perform a predetermined moving response process when the moving detection unit detects the moving of the environmental sensor . a plurality of sensor elements (4a - 4g) including an illuminance sensor and an acceleration sensor ; a moving detection unit configured to detect moving of the environmental sensor based on at least one of the physical quantities or a change in the at least one physical quantity, wherein the moving detection unit detects the moving of the environmental sensor when a change in an illuminance detected by the illuminance sensor is greater than or equal to a predetermined value before and after the acceleration sensor detects an acceleration greater than or equal to a predetermined value and/or a change in an acceleration within a predetermined range; and a moving response unit configured to perform a predetermined moving response process when the moving detection unit detects the moving of the environmental sensor .
A drive control device for a hybrid vehicle provided with: a differential device (14, 16; 14, 16') which includes a first differential mechanism and a second differential mechanism (16; 16') and which has four rotary elements (C1, C2/S1/S2/R1, R2; C1, R2'/S1/S2'/R1, C2'; and an engine , a first electric motor (MG1), a second electric motor (MG2) and an output rotary member which are respectively connected to said four rotary elements, wherein one (C1, C2; C1, R2') of said four rotary elements is constituted by a rotary component (C1; C1) of said first differential mechanism and a rotary component (C2; R2') of said second differential mechanism which are selectively connected to each other through a clutch (CL), and one (C2; R2') of the rotary components of said first and second differential mechanisms which are selectively connected to each other through said clutch is selectively fixed to a stationary member through a brake (BK), said drive control device comprising: an engine stop control portion configured to control said first and second electric motors (MG1, MG2) so as to generate torques in respective opposite directions when the engine is required to be stopped during running of the hybrid vehicle in an engine drive mode in which said clutch (CL) is placed in an engaged state, said engine stop control portion reversing the directions of the torques generated by said first and second electric motors while the hybrid vehicle is in a coasting run, with respect to those generated while the hybrid vehicle is in a positive driving run.
A process for making propene oxide comprising the steps a) reacting propene with hydrogen peroxide in the presence of a methanol solvent, of a titanium zeolite epoxidation catalyst and of at least one nitrogen containing compound present in an amount of from 100 to 3000 mg/kg of hydrogen peroxide, at a molar excess of propene to hydrogen peroxide to provide a reaction mixture; b) separating all or a part of non-reacted propene from the reaction mixture of step a) to provide a propene depleted reaction mixture; c) subjecting the propene depleted reaction mixture of step b) to a distillation in a distillation column providing an overhead product stream comprising propene oxide and methanol and a bottoms product stream comprising methanol and water; d) and separating propene oxide from the overhead product stream of step c); characterized in that step c) is performed after contact with and/or in presence of an acid provided in an amount providing an apparent pH in the bottoms product stream of from 3 to 4.5. a) reacting propene with hydrogen peroxide in the presence of a methanol solvent, of a titanium zeolite epoxidation catalyst and of at least one nitrogen containing compound present in an amount of from 100 to 3000 mg/kg of hydrogen peroxide, at a molar excess of propene to hydrogen peroxide to provide a reaction mixture; b) separating all or a part of non-reacted propene from the reaction mixture of step a) to provide a propene depleted reaction mixture; c) subjecting the propene depleted reaction mixture of step b) to a distillation in a distillation column providing an overhead product stream comprising propene oxide and methanol and a bottoms product stream comprising methanol and water; d) and separating propene oxide from the overhead product stream of step c); characterized in that
An interlocking device which is configured to perform route control for trains based on: first operation diagram information as train operation diagram information on a train which runs between stations; second operation diagram information as train operation diagram information on a train which moves in a station yard; and on-track position information on the trains, wherein the second operation diagram information contains: starting time as time at which a train leaves a start point of an entry/departure route as a route of the train entering or departing from a vehicle depot; and through time as time at which the train passes through a predetermined through place provided between the start point and an end point of the entry/departure route, and the interlocking device : is configured to perform control with time on a signal and/or a switch on a route of a train based on different information according to whether a predetermined condition is satisfied, is configured to determine whether the condition is satisfied, wherein the condition is that the through place for which through time is set is provided in the entry/departure route; and when determining that the condition is not satisfied, is configured to control the signal and/or the switch in a section from the start point to the end point based on the starting time; and when determining that the condition is satisfied, is configured to control the signal and/or the switch in a section from the start point to the through place based on the starting time, and controls the signal and/or the switch in a section from the through place to another through place or in a section from the through place to the end point based on the through time. is configured to perform control with time on a signal and/or a switch on a route of a train based on different information according to whether a predetermined condition is satisfied, is configured to determine whether the condition is satisfied, wherein the condition is that the through place for which through time is set is provided in the entry/departure route; and when determining that the condition is not satisfied, is configured to control the signal and/or the switch in a section from the start point to the end point based on the starting time; and when determining that the condition is satisfied, is configured to control the signal and/or the switch in a section from the start point to the through place based on the starting time, and controls the signal and/or the switch in a section from the through place to another through place or in a section from the through place to the end point based on the through time.
Invalid chair with side rails arranged next to the seat surface , wherein the side rails can be lowered from a use position, in which the substantially horizontal upper edges or armrests arranged there occupy a position above the seat surface , into a non-use position, in which the aforementioned upper edges or armrests have a position in the plane of the seat surface , characterised in that the upper edges or armrests , during the vertical adjustment of the side rails , perform a horizontal movement such that the front ends of the upper edges or armrests in the longitudinal direction of the chair are positioned, in the non-use position, next to the front seat surface edge or behind it in the longitudinal direction of the chair and, in the use position of the side rails, in top view of the seat surface , occupy a position in front of the front seat surface edge.