mhurhangee/patent-ind-claim-en huggingface dataset:
An actuator system that is configured as a two-channel electropneumatic axle modulator for a braking system of a commercial vehicle, wherein the actuator system has: two fluid-actuated consumers and a pilot unit for controlling the fluid-actuated consumer , wherein the pilot unit has at least two electromagnetic pilot-valves per consumer , each having: - a coil for producing a magnetic flux along a valve axis (A), - an armature which can be displaced in an axial direction (x) of the valve axis (A), - a valve seat that can be closed and released by the armature , - a fluid inlet connection for a fluid and a fluid outlet connection for the fluid, wherein in each case at least two of the pilot valves per consumer lie adjacent to one another with parallel valve axes (A) in a transverse direction (y) perpendicular to their axial direction (x), wherein the at least four pilot valves are aligned in axial direction (x), and the pilot valves each have a connection jutting towards a common underside for connection to a pilot chamber of the consumer controlled by the pilot valves , wherein the pilot unit is placed on a pilot chamber of the consumer forming the fluid inlet connection in a perpendicular direction (z) vertical to the axial direction (x) of the electromagnetic pilot valves . two fluid-actuated consumers and a pilot unit for controlling the fluid-actuated consumer , wherein the pilot unit has at least two electromagnetic pilot-valves per consumer , each having: - a coil for producing a magnetic flux along a valve axis (A), - an armature which can be displaced in an axial direction (x) of the valve axis (A), - a valve seat that can be closed and released by the armature , - a fluid inlet connection for a fluid and a fluid outlet connection for the fluid, - a coil for producing a magnetic flux along a valve axis (A), - an armature which can be displaced in an axial direction (x) of the valve axis (A), - a valve seat that can be closed and released by the armature , - a fluid inlet connection for a fluid and a fluid outlet connection for the fluid, wherein in each case at least two of the pilot valves per consumer lie adjacent to one another with parallel valve axes (A) in a transverse direction (y) perpendicular to their axial direction (x), wherein the at least four pilot valves are aligned in axial direction (x), and the pilot valves each have a connection jutting towards a common underside for connection to a pilot chamber of the consumer controlled by the pilot valves , wherein the pilot unit is placed on a pilot chamber of the consumer forming the fluid inlet connection in a perpendicular direction (z) vertical to the axial direction (x) of the electromagnetic pilot valves .
A method for managing basket workflow during food preparation at an automated cooking system , which includes a gantry system including a gantry , a dispensing freezer , a fryer including a plurality of fryer vats , and a hot holding station , the method comprising: performing, by the gantry system , a basket loading cycle, each basket loading cycle defined by at least the following: picking up a filled basket from the dispensing freezer with the gantry , moving the gantry and the filled basket to a selected one of the platforms at the fryer , and dropping off the filled basket onto the selected one of the platforms to allow the fryer to cook food product in the filled basket ; and performing, by the gantry system , a basket discharge cycle, each basket discharge cycle defined by at least the following: picking up a filled basket containing food product that has been cooked by the fryer from one of the platforms at the fryer with the gantry , moving the gantry and the filled basket to the hot holding station , and discharge the cooked food product into the hot holding station to empty the basket , wherein the automated cooking system prioritizes and orders the basket loading cycles and the basket discharge cycles for the gantry system to satisfy varying levels of demand for cooked food products from the automated cooking system , characterized in that each fryer vat includes at least one platform for receiving and moving a basket , and by the step actuating the filled basket with the gantry to open the filled basket and thereby discharge the cooked food product from the basket . performing, by the gantry system , a basket loading cycle, each basket loading cycle defined by at least the following: picking up a filled basket from the dispensing freezer with the gantry , moving the gantry and the filled basket to a selected one of the platforms at the fryer , and dropping off the filled basket onto the selected one of the platforms to allow the fryer to cook food product in the filled basket ; and performing, by the gantry system , a basket discharge cycle, each basket discharge cycle defined by at least the following: picking up a filled basket containing food product that has been cooked by the fryer from one of the platforms at the fryer with the gantry , moving the gantry and the filled basket to the hot holding station , and discharge the cooked food product into the hot holding station to empty the basket , wherein the automated cooking system prioritizes and orders the basket loading cycles and the basket discharge cycles for the gantry system to satisfy varying levels of demand for cooked food products from the automated cooking system , characterized in that each fryer vat includes at least one platform for receiving and moving a basket , and by the step actuating the filled basket with the gantry to open the filled basket and thereby discharge the cooked food product from the basket .
A method, comprising: receiving, by a processor , voltage values corresponding to a battery system; receiving, by the processor , charge values corresponding to charge flowing through the battery system; analyzing, by the processor, at least the received voltage values over at least one defined duration period of time; determining, by the processor, anchoring points of charge integration that satisfy respective defined conditions for respective defined duration periods of time by a defined quantity of repetition of conditions based at least in part on the received voltage and time, wherein the defined quantity of repetition is greater than 1; updating, by the processor, a capacity of the battery system by assigning the determined anchoring points that satisfy the respective defined conditions as updated anchoring points of the charge integration thereby replacing values of previously assigned anchoring points; and determining, by the processor , a state of charge based on the updated anchoring points of the charge integration. receiving, by a processor , voltage values corresponding to a battery system; receiving, by the processor , charge values corresponding to charge flowing through the battery system; analyzing, by the processor, at least the received voltage values over at least one defined duration period of time; determining, by the processor, anchoring points of charge integration that satisfy respective defined conditions for respective defined duration periods of time by a defined quantity of repetition of conditions based at least in part on the received voltage and time, wherein the defined quantity of repetition is greater than 1; updating, by the processor, a capacity of the battery system by assigning the determined anchoring points that satisfy the respective defined conditions as updated anchoring points of the charge integration thereby replacing values of previously assigned anchoring points; and determining, by the processor , a state of charge based on the updated anchoring points of the charge integration.
Patch-type device for injecting insulin preparations into a diabetes patient containing means for securing adherence to a patient's skin and a mechanically driven pump system with a fluid reservoir and fluid moving means, and a Lavet-type stepper motor (3,5;24,26) for delivery of the insulin preparations through a cannula inserted into a patient's skin, the Lavet-type stepper motor comprising an asymmetric stator and a rotor comprising a cylindrical magnet made of high energy density magnetic alloys containing rare earth elements, characterized in that the drive motor for the fluid moving means is the Lavet-type stepper motor powered by a button battery, the rotor magnet having a diameter of typically 3 mm, the rotor magnet diameter being larger than its height in axial direction, typically by a factor of 1.5, the rotor height being larger than the axial thickness of the stator, typically by a factor of 1.25, the stator being made from an alloy of iron and nickel, typically by a ratio of 50% to 50%, the stator having a linear shift between the poles of typically 0.125 mm, the air gap between the rotor and the stator having a width of typically 0.25 mm, the holding torque being up to 50% higher than the load torque and when the Lavet-type stepper motor successfully performs a step, there is an induced current of opposite polarity with respect to the applied voltage pulse, and when the Lavet-type stepper motor does not successfully perform the step, there is an induced current that is of the same polarity with respect to the applied voltage.
A fire suppressant system for an aircraft comprising: a source of a fire suppressant ; a tubing system for delivering the fire suppressant to one or more predetermined locations; and a discharge nozzle disposed in the one or more predetermined locations, the discharge nozzle connected to the tubing system , and being configured to distribute the fire suppressant in the one or more predetermined locations during a fire, the discharge nozzle including a first nozzle head with a first opening (D1) having a first flow area and a second nozzle head with a second opening (D2) having a second flow area that differs from the first flow area, and a third nozzle head with a third opening (D3) having a third flow area that differs from the first flow area and the second flow area, wherein: the first opening (D1) is smaller than the second opening (D2), and the second opening (D2) is smaller than the third opening (D3), so that a the first opening (D1) is configured to generate a droplet size of 20 microns or less, the second opening (D2) is configured to generate a droplet size of 20-70 microns and the third opening (D3) is configured to generate a droplet size of 70 to 200 microns. a source of a fire suppressant ; a tubing system for delivering the fire suppressant to one or more predetermined locations; and a discharge nozzle disposed in the one or more predetermined locations, the discharge nozzle connected to the tubing system , and being configured to distribute the fire suppressant in the one or more predetermined locations during a fire, the discharge nozzle including a first nozzle head with a first opening (D1) having a first flow area and a second nozzle head with a second opening (D2) having a second flow area that differs from the first flow area, and a third nozzle head with a third opening (D3) having a third flow area that differs from the first flow area and the second flow area, wherein: the first opening (D1) is smaller than the second opening (D2), and the second opening (D2) is smaller than the third opening (D3), so that a the first opening (D1) is configured to generate a droplet size of 20 microns or less, the second opening (D2) is configured to generate a droplet size of 20-70 microns and the third opening (D3) is configured to generate a droplet size of 70 to 200 microns.
A fiber tow, comprising: a plurality of reinforcing filaments each having a filament cross-sectional width; a plurality of polymer nanoparticles ; the polymer nanoparticles having a particle cross-sectional width that is less than the filament cross-sectional width; and at least a portion of the polymer nanoparticles are coupled to at least one of the reinforcing filaments and/or to other polymer nanoparticles , wherein at least a portion of the polymer nanoparticles are core-sheath nanoparticles having a sheath encapsulating a core , the sheath being formed of a different material than the core; and the sheath being coupled to at least one reinforcing filament, and being formed of thermoplastic material that is melt-fused to the reinforcing filament. a plurality of reinforcing filaments each having a filament cross-sectional width; a plurality of polymer nanoparticles ; the polymer nanoparticles having a particle cross-sectional width that is less than the filament cross-sectional width; and at least a portion of the polymer nanoparticles are coupled to at least one of the reinforcing filaments and/or to other polymer nanoparticles , wherein at least a portion of the polymer nanoparticles are core-sheath nanoparticles having a sheath encapsulating a core , the sheath being formed of a different material than the core; and the sheath being coupled to at least one reinforcing filament, and being formed of thermoplastic material that is melt-fused to the reinforcing filament.
A method of providing a snow storage with heat insulation, the method comprising covering a snow pile made at a snow storage site with heat-insulating materials of which at least some are insulation boards , characterized in that - the insulation of the snow pile is carried out by using insulation board mats which include several insulation boards , or insulation board groups consisting of several insulation boards attached against each other, side by side and/or one after another, and which are pivotably joined together, alternately at the upper corners and the lower corners of their opposite transversal end edges , the resulting continuous insulation board mat composed of several insulation boards one after another being foldable into an accordion-like insulation board bundle and re-openable into a continuous insulation board mat , - as the snow pile is heat-insulated, the accordion-like insulation board bundles are opened up and pulled to lie side by side and/or one after another on the top/sides of the snow pile , the insulation board mats which have been opened up and pulled onto the snow pile thus covering at least a portion of the snow pile, - as the insulation board mats are removed from the snow storage , the insulation board mats are pulled off the snow pile and folded back into insulation board bundles with an accordion-like configuration. - the insulation of the snow pile is carried out by using insulation board mats which include several insulation boards , or insulation board groups consisting of several insulation boards attached against each other, side by side and/or one after another, and which are pivotably joined together, alternately at the upper corners and the lower corners of their opposite transversal end edges , the resulting continuous insulation board mat composed of several insulation boards one after another being foldable into an accordion-like insulation board bundle and re-openable into a continuous insulation board mat , - as the snow pile is heat-insulated, the accordion-like insulation board bundles are opened up and pulled to lie side by side and/or one after another on the top/sides of the snow pile , the insulation board mats which have been opened up and pulled onto the snow pile thus covering at least a portion of the snow pile, - as the insulation board mats are removed from the snow storage , the insulation board mats are pulled off the snow pile and folded back into insulation board bundles with an accordion-like configuration.
A method for processing data by a reception device, the method comprising: receiving (1j-05) a radio link control, RLC, packet data unit, PDU, from a lower layer; determining (1j-10) a sequence number of the RLC PDU by analyzing an RLC header of the RLC PDU; identifying (1j-10) whether an RLC service data unit, SDU, obtained from the RLC PDU is a complete RLC SDU or a segment of complete SDU based on a segmentation related RLC header field in an RLC header of the RLC PDU; transferring (1j-15) a first RLC SDU obtained from the RLC PDU from an RLC layer to a packet data convergence protocol, PDCP, layer regardless of an order of the sequence number of the RLC PDU in case that the first RLC SDU is identified as the complete RLC SDU and the first RLC SDU is associated with an ultra reliable low latency communication, URLLC, service; and deciphering (1j-20) the first RLC SDU regardless of a sequence number of a PDCP PDU acquired from the first RLC SDU in case that the first RLC SDU is associated with the URLLC service, wherein a second RLC SDU obtained from the RLC PDU is not transferred from the RLC layer to the PDCP layer regardless of the sequence number of the RLC PDU in case that the second RLC SDU is identified as a segment of complete RLC SDU, and wherein in case that the second RLC SDU is the segment of complete RLC SDU, the second RLC SDU is not transferred to the PDCP layer until the second RLC SDU is combined for the complete RLC SDU. receiving (1j-05) a radio link control, RLC, packet data unit, PDU, from a lower layer; determining (1j-10) a sequence number of the RLC PDU by analyzing an RLC header of the RLC PDU; identifying (1j-10) whether an RLC service data unit, SDU, obtained from the RLC PDU is a complete RLC SDU or a segment of complete SDU based on a segmentation related RLC header field in an RLC header of the RLC PDU; transferring (1j-15) a first RLC SDU obtained from the RLC PDU from an RLC layer to a packet data convergence protocol, PDCP, layer regardless of an order of the sequence number of the RLC PDU in case that the first RLC SDU is identified as the complete RLC SDU and the first RLC SDU is associated with an ultra reliable low latency communication, URLLC, service; and deciphering (1j-20) the first RLC SDU regardless of a sequence number of a PDCP PDU acquired from the first RLC SDU in case that the first RLC SDU is associated with the URLLC service,
A peramivir solution inhalant, wherein the solution inhalant comprises: peramivir; an osmotic pressure regulator; a pH regulator; sodium dihydrogen phosphate; and water, wherein concentration of peramivir is greater than 15 mg/ml; concentration of the osmotic pressure regulator is less than 8 mg/ml; pH value of the solution inhalant ranges from 5.0 to 6.0; the solution inhalant is sterilized in a non-heating manner; wherein the osmotic pressure regulator refers to sodium chloride, and concentration of the sodium dihydrogen phosphate ranges from 0.05 to 0.2 mg/ml. peramivir; an osmotic pressure regulator; a pH regulator; sodium dihydrogen phosphate; and water, wherein concentration of peramivir is greater than 15 mg/ml; concentration of the osmotic pressure regulator is less than 8 mg/ml; pH value of the solution inhalant ranges from 5.0 to 6.0; the solution inhalant is sterilized in a non-heating manner; wherein the osmotic pressure regulator refers to sodium chloride, and concentration of the sodium dihydrogen phosphate ranges from 0.05 to 0.2 mg/ml.
A pipetting support device (1; 1'; 1") comprising: at least one first plate (11; 11'; 11") comprising at least one row (111a, 111b, 111c; 111a', 111b', 111c'; 111a", 111b") of first vessels; at least one second plate (12; 12'; 12") comprising at least one row (121a', 121 b', 121c'; 121") of second vessels; and at least one moving unit (13; 13'; 13") holding said second plate (12; 12', 12"); wherein the moving unit (13; 13'; 13") comprises a main body with a holding area (135; 135'), with the holding area (135; 135') comprising a recess for accommodating the second plate (12; 12', 12"), wherein the moving unit (13; 13'; 13") is movable in relation to said first plate (11; 11'; 11") and at least partially covers said first plate (11; 11'; 11") during use of the pipetting support device (1; 1'; 1"); and wherein at least one edge (133; 133'; 133") of the moving unit (13; 13'; 13") is an indicating edge for indicating a row (111a, 111b, 111c; 111a', 111b', 111c'; 111a", 111b") of first vessels of the first plate (11; 11'; 11") to be pipetted by a user, for providing guidance to support a manual pipetting procedure from said first plate (11; 11'; 11") to said second plate (12; 12'; 12"), or vice versa. at least one first plate (11; 11'; 11") comprising at least one row (111a, 111b, 111c; 111a', 111b', 111c'; 111a", 111b") of first vessels; at least one second plate (12; 12'; 12") comprising at least one row (121a', 121 b', 121c'; 121") of second vessels; and at least one moving unit (13; 13'; 13") holding said second plate (12; 12', 12"); wherein the moving unit (13; 13'; 13") comprises a main body with a holding area (135; 135'), with the holding area (135; 135') comprising a recess for accommodating the second plate (12; 12', 12"), wherein the moving unit (13; 13'; 13") is movable in relation to said first plate (11; 11'; 11") and at least partially covers said first plate (11; 11'; 11") during use of the pipetting support device (1; 1'; 1"); and wherein at least one edge (133; 133'; 133") of the moving unit (13; 13'; 13") is an indicating edge for indicating a row (111a, 111b, 111c; 111a', 111b', 111c'; 111a", 111b") of first vessels of the first plate (11; 11'; 11") to be pipetted by a user, for providing guidance to support a manual pipetting procedure from said first plate (11; 11'; 11") to said second plate (12; 12'; 12"), or vice versa.