mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft comprising: an electric propulsion engine; a combustion turbine engine; a flight controller for generating a first control signal indicative of a thrust request, a second control signal indicative of a recharge request, and a third control signal indicative of a descent request; and an aircraft propulsion controller operative to engage the electric propulsion engine and the combustion turbine engine in response to the first control signal and disengage the electric propulsion engine in response to the second control signal, wherein the electric propulsion engine is operative to withdraw into an aircraft fuselage in response to the second control signal, wherein the electric propulsion engine is operative to deploy in response to the third control signal, and wherein the electric propulsion engine is engaged in a regenerative mode to charge a battery in response to the third control signal. an electric propulsion engine; a combustion turbine engine; a flight controller for generating a first control signal indicative of a thrust request, a second control signal indicative of a recharge request, and a third control signal indicative of a descent request; and an aircraft propulsion controller operative to engage the electric propulsion engine and the combustion turbine engine in response to the first control signal and disengage the electric propulsion engine in response to the second control signal, wherein the electric propulsion engine is operative to withdraw into an aircraft fuselage in response to the second control signal, wherein the electric propulsion engine is operative to deploy in response to the third control signal, and wherein the electric propulsion engine is engaged in a regenerative mode to charge a battery in response to the third control signal.
An aqueous, topical anti-inflammatory gel composition having a pH value in the range of 3 to 5.5, which comprises: a non-steroidal anti-inflammatory drug (NSAID) which is an arylalkanoic acid, a lactate ester of a C 2 to C 16 saturated aliphatic alcohol, a monoprotic organic acid having a pKa value in the range of about 3.8 to about 5, a C 2 to C 8 saturated aliphatic alcohol, a solubility enhancer, and a cationic galactomannan gum, wherein the cationic galactomannan gum content in the composition is in the range of 1 to 5 percent by weight, based on the total weight of the composition. a non-steroidal anti-inflammatory drug (NSAID) which is an arylalkanoic acid, a lactate ester of a C 2 to C 16 saturated aliphatic alcohol, a monoprotic organic acid having a pKa value in the range of about 3.8 to about 5, a C 2 to C 8 saturated aliphatic alcohol, a solubility enhancer, and a cationic galactomannan gum, wherein the cationic galactomannan gum content in the composition is in the range of 1 to 5 percent by weight, based on the total weight of the composition.
A method of allocating slots of time in a time slotted channel hopping TSCH wireless communication network that includes at least one intermediate node IN that interfaces between a root node RN and a plurality of leaf nodes LNs, comprising: allocating a first plurality of shared transmit/receive slots STRSs to an IN when the IN associates with the network; and advertising a second plurality of STRSs allocated as contention slots in which LNs may contend for association with the network; wherein the first plurality of STRSs is larger than the second plurality of STRSs. allocating a first plurality of shared transmit/receive slots STRSs to an IN when the IN associates with the network; and advertising a second plurality of STRSs allocated as contention slots in which LNs may contend for association with the network;
Automatic in-vitro diagnostic analysis method comprising adding in parallel with a single pipette head comprising at least two pipetting nozzles a time-trigger reagent and an incubation reagent to at least two test liquids respectively, wherein the time-trigger reagent is a reagent that triggers a time measurement from the moment that it has been added to the respective test liquid and wherein the incubation reagent is a reagent required for a first reaction to occur and that requires a time-trigger reagent for a test to be completed, characterized in that the method comprises adding the incubation reagent into a vessel held by a static vessel holder and adding the time-trigger reagent into a vessel held by a gripper of a vessel workstation , wherein the method further comprises triggering a time measurement from the moment the time-trigger reagent has been added to the test liquid and transferring the vessel held by the gripper to at least one detection position of the static vessel holder after the addition of the time-trigger reagent.
A multi-inlet gas distributor for a fluidized bed chemical vapor deposition chamber, comprising: a distributor body having an inlet surface, an exit surface opposed to the inlet surface, and a side perimeter surface extending between and connecting the inlet surface to the exit surface; multiple-inlets evenly spaced from each other, wherein the multiple-inlets penetrate the distributor body from the inlet surface to a first depth; and cone-shaped apertures connecting to corresponding ones of the multiple-inlets at the first depth and extend from the first depth toward the exit surface, wherein an apex is formed on the exit surface at an intersection of the cone-shaped apertures, and a saddle is formed with an arch-shaped edge along the exit surface at an intersection of at least one of the cone-shaped apertures with the side perimeter surface. a distributor body having an inlet surface, an exit surface opposed to the inlet surface, and a side perimeter surface extending between and connecting the inlet surface to the exit surface; multiple-inlets evenly spaced from each other, wherein the multiple-inlets penetrate the distributor body from the inlet surface to a first depth; and cone-shaped apertures connecting to corresponding ones of the multiple-inlets at the first depth and extend from the first depth toward the exit surface, wherein an apex is formed on the exit surface at an intersection of the cone-shaped apertures, and a saddle is formed with an arch-shaped edge along the exit surface at an intersection of at least one of the cone-shaped apertures with the side perimeter surface.
Use of a heat exchange body and of a fluid flow source as a heat exchange device , wherein the fluid flow source is configured to provide a fluid flow , and wherein the body and the fluid flow source are arranged in relation to one another in such a way that the fluid flow provided by the fluid flow source interacts with the body for the purpose of heat exchange, characterized in that the fluid flow source comprises a fluidic component comprising at least one means for generating an oscillation of the fluid flow , wherein the at least one means comprises no movable components.
A safety seat including: a seat portion , a pair of side walls and a back rest portion for receiving an occupant; an internal bladder at an interior side of at least one of the pair of side walls ; an external bladder at an exterior side of the at least one of the pair of side walls ; wherein the external bladder is configured to fluidly communicate, through the at least one of the pair of side walls , with the internal bladder ; wherein, in use, the external bladder is configured to be in a decompressed state and the internal bladder is configured to be in a compressed state, such that an impact event against the external bladder causes inflation of the internal bladder , characterized in that the safety seat further includes a headrest that is laterally moveable. a seat portion , a pair of side walls and a back rest portion for receiving an occupant; an internal bladder at an interior side of at least one of the pair of side walls ; an external bladder at an exterior side of the at least one of the pair of side walls ; wherein the external bladder is configured to fluidly communicate, through the at least one of the pair of side walls , with the internal bladder ; wherein, in use, the external bladder is configured to be in a decompressed state and the internal bladder is configured to be in a compressed state, such that an impact event against the external bladder causes inflation of the internal bladder , characterized in that the safety seat further includes a headrest that is laterally moveable.
Measuring system for determining a dispensed amount of hydrogen of a hydrogen dispensing location , in particular a hydrogen fueling station, from a hydrogen dispensing unit in form of a filling point present there to a receiving tank , with a measuring unit , wherein the measuring unit has a flowmeter which can be arranged between the hydrogen dispensing unit in form of the filling point and the receiving tank , wherein the measuring system is designed to establish a fluid-tight connection between the hydrogen dispensing unit in form of the filling point and the receiving tank whereby a fluid-tight connection can be established from the hydrogen-dispensing unit in the form of a filling point to the measuring unit and a fluid-tight connection can be established from the measuring unit to the receiving tank , wherein the measuring unit is designed to lead hydrogen dispensed by the hydrogen dispensing unit in form of the filling point through the flowmeter of the measuring unit to the receiving tank and characterized in that the flowmeter has an active cooling system which is designed to cool the flowmeter before the start of the transfer of the hydrogen in such a way that there is essentially no change in the temperature in the flowmeter during the transfer. with a measuring unit , wherein the measuring unit has a flowmeter which can be arranged between the hydrogen dispensing unit in form of the filling point and the receiving tank , wherein the measuring system is designed to establish a fluid-tight connection between the hydrogen dispensing unit in form of the filling point and the receiving tank whereby a fluid-tight connection can be established from the hydrogen-dispensing unit in the form of a filling point to the measuring unit and a fluid-tight connection can be established from the measuring unit to the receiving tank , wherein the measuring unit is designed to lead hydrogen dispensed by the hydrogen dispensing unit in form of the filling point through the flowmeter of the measuring unit to the receiving tank and characterized in that the flowmeter has an active cooling system which is designed to cool the flowmeter before the start of the transfer of the hydrogen in such a way that there is essentially no change in the temperature in the flowmeter during the transfer.
A method for gradient calculating, comprising: acquiring current operating parameters of a vehicle (S100), wherein the current operating parameters include a current longitudinal acceleration, a current lateral acceleration, a current vehicle acceleration, and a current vehicle speed; determining a first influence value of the current lateral acceleration on the current longitudinal acceleration according to the current lateral acceleration and the current vehicle speed (S200); determining a second influence value of the current vehicle acceleration on the current longitudinal acceleration according to the current vehicle acceleration and the current vehicle speed (S300); correcting the current longitudinal acceleration according to the first influence value and the second influence value (S400); and determining the gradient value based on the corrected current longitudinal acceleration (S500). acquiring current operating parameters of a vehicle (S100), wherein the current operating parameters include a current longitudinal acceleration, a current lateral acceleration, a current vehicle acceleration, and a current vehicle speed; determining a first influence value of the current lateral acceleration on the current longitudinal acceleration according to the current lateral acceleration and the current vehicle speed (S200); determining a second influence value of the current vehicle acceleration on the current longitudinal acceleration according to the current vehicle acceleration and the current vehicle speed (S300); correcting the current longitudinal acceleration according to the first influence value and the second influence value (S400); and determining the gradient value based on the corrected current longitudinal acceleration (S500).
A method for correlating position and profile measurements of an object to be manipulated by a hoisting appliance, the method being implemented in a centralized control unit configured for controlling the hoisting appliance and comprising the following: - receiving position sensor data from at least one position sensor, said sensor being configured to perform position measurements of the hoisting appliance within the hoisting area; - receiving profile scanner data from at least one profile scanner located on the hoisting appliance, the profile scanner being configured to perform profile measurements of an object located below the hoisting appliance; - determining a speed of the hoisting appliance, by obtaining historical data of the speed of the hoisting appliance and calculating the evolution of the position; - refining a position of the object to be manipulated based on the position data received from the position sensor, by calculating a true position based on a predetermined time delay associated with the speed of the hoisting appliance; - correlating the refined position and the profile data to calculate object dimensions. - receiving position sensor data from at least one position sensor, said sensor being configured to perform position measurements of the hoisting appliance within the hoisting area; - receiving profile scanner data from at least one profile scanner located on the hoisting appliance, the profile scanner being configured to perform profile measurements of an object located below the hoisting appliance; - determining a speed of the hoisting appliance, by obtaining historical data of the speed of the hoisting appliance and calculating the evolution of the position; - refining a position of the object to be manipulated based on the position data received from the position sensor, by calculating a true position based on a predetermined time delay associated with the speed of the hoisting appliance; - correlating the refined position and the profile data to calculate object dimensions.
A hematoxylin staining composition comprising: a solvent, hematoxylin, an amount of a chemical oxidant sufficient to convert at least a portion of the hematoxylin to hematein, a mordant, wherein the composition further comprises chloride (Cl - ) and sulfate (SO 4 2- ), wherein the chloride/sulfate molar ratio is between about 2.5/1 and about 1/4.
A force sensor , comprising: a sensor chip that detects displacements in multiple axial directions; and a strain body that transfers force applied thereto to the sensor chip and includes a base to be attached to an object; a sensor chip mount on which the sensor chip is mounted, and multiple columns (22a to 22d) disposed on an upper surface of the base and arranged around and apart from the sensor chip mount , wherein a space is formed between the upper surface of the base and a lower surface of the sensor chip mount characterized in that the strain body further comprises connecting beams (28a to 28d) via which the sensor chip mount is fixed to the columns (22a to 22d) without direct fixation between the sensor chip mount and the upper surface of the base . a sensor chip that detects displacements in multiple axial directions; and a strain body that transfers force applied thereto to the sensor chip and includes a base to be attached to an object; a sensor chip mount on which the sensor chip is mounted, and multiple columns (22a to 22d) disposed on an upper surface of the base and arranged around and apart from the sensor chip mount , a base to be attached to an object; a sensor chip mount on which the sensor chip is mounted, and multiple columns (22a to 22d) disposed on an upper surface of the base and arranged around and apart from the sensor chip mount , wherein a space is formed between the upper surface of the base and a lower surface of the sensor chip mount characterized in that the strain body further comprises connecting beams (28a to 28d) via which the sensor chip mount is fixed to the columns (22a to 22d) without direct fixation between the sensor chip mount and the upper surface of the base .
A power unit for a drug delivery device, comprising: - a first interface member extending along a reference axis and comprising a hollow body and a first engagement structure , - a second interface member comprising a tubular structure extending at least partially through the hollow body and having a skirt , and a second engagement structure configured for releasable engagement with the first engagement structure , and - a torsion spring comprising a first end portion being attached to the first interface member and a second end portion being attached to the second interface member , the torsion spring being pre-strained to induce a relative rotational motion between the first interface member and the second interface member , wherein the first interface member and the second interface member are configured for relative motion along the reference axis from a first relative axial position in which the first engagement structure and the second engagement structure are engaged to prevent the relative rotational motion between the first interface member and the second interface member to a second relative axial position in which the first engagement structure and the second engagement structure are disengaged, characterised in that in the first relative axial position of the first interface member and the second interface member the torsion spring is accommodated in a user inaccessible space defined by the hollow body and the skirt . - a first interface member extending along a reference axis and comprising a hollow body and a first engagement structure , - a second interface member comprising a tubular structure extending at least partially through the hollow body and having a skirt , and a second engagement structure configured for releasable engagement with the first engagement structure , and - a torsion spring comprising a first end portion being attached to the first interface member and a second end portion being attached to the second interface member , the torsion spring being pre-strained to induce a relative rotational motion between the first interface member and the second interface member , wherein the first interface member and the second interface member are configured for relative motion along the reference axis from a first relative axial position in which the first engagement structure and the second engagement structure are engaged to prevent the relative rotational motion between the first interface member and the second interface member to a second relative axial position in which the first engagement structure and the second engagement structure are disengaged, characterised in that in the first relative axial position of the first interface member and the second interface member the torsion spring is accommodated in a user inaccessible space defined by the hollow body and the skirt .
A system, comprising: an imaging device configured to image a first three-dimensional printed object ; and a processor coupled to the imaging device and configured to: receive information generated as a result of imaging the first 3D printed object with the imaging device ; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify , based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object ; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object. an imaging device configured to image a first three-dimensional printed object ; and a processor coupled to the imaging device and configured to: receive information generated as a result of imaging the first 3D printed object with the imaging device ; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify , based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object ; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object. receive information generated as a result of imaging the first 3D printed object with the imaging device ; identify a first set of features for the first 3D printed object using the received information; compare the first set of features with multiple reference sets of features, each of the multiple reference sets of features being associated with a respective 3D object in a first plurality of 3D objects; identify , based at least in part on results of the comparison, a 3D object from the first plurality of 3D objects that matches the first 3D printed object ; and determine whether the first 3D printed object is defective based on comparing the information generated as a result of imaging the first 3D printed object with the imaging device and a model of the identified 3D object from the first plurality of 3D objects that matches the first 3D printed object.
A method for a connected vehicle , comprising: receiving (301; 401) event data that describes a set of events configured for triggering a creation of an on-demand stationary vehicular micro cloud ; receiving (303; 405) sensor data that describes a roadway environment; detecting , based at least in part on the sensor data, an occurrence of at least one event included in the set of events; modifying an operation of a communication unit of the connected vehicle to initiate the creation of the on-demand stationary vehicular micro cloud to address the occurrence of the at least one event; and characterized by : executing (415; 421) one or more tasks described by the event data with one or more members in the on-demand stationary vehicular micro cloud . receiving (301; 401) event data that describes a set of events configured for triggering a creation of an on-demand stationary vehicular micro cloud ; receiving (303; 405) sensor data that describes a roadway environment; detecting , based at least in part on the sensor data, an occurrence of at least one event included in the set of events; modifying an operation of a communication unit of the connected vehicle to initiate the creation of the on-demand stationary vehicular micro cloud to address the occurrence of the at least one event; and characterized by : executing (415; 421) one or more tasks described by the event data with one or more members in the on-demand stationary vehicular micro cloud .