mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid rocket engine using a pump driven by an electric motor, the liquid rocket engine comprising: a main combustor to receive and combust an oxidant and a fuel; a main oxidant line to guide the oxidant accommodated in an oxidant tank to the main combustor ; a main fuel line to guide the fuel accommodated in a fuel tank to the main combustor ; an oxidant pump installed at the main oxidant line ; and a fuel pump installed at the main fuel line ; characterized by an electric motor installed between the oxidant pump and the fuel pump and uniaxially driving the oxidant pump and the fuel pump ; a cooling line branched from a side of the main oxidant line to guide a part of the oxidant to the electric motor , or branched from a side of the main fuel line to guide a part of the fuel to the electric motor ; and a cooling part connected to the cooling line so as to allow fluid flow therebetween and installed at the electric motor; wherein at least one of the oxidant and the fuel is transferred to the cooling line to cool the electric motor . a main combustor to receive and combust an oxidant and a fuel; a main oxidant line to guide the oxidant accommodated in an oxidant tank to the main combustor ; a main fuel line to guide the fuel accommodated in a fuel tank to the main combustor ; an oxidant pump installed at the main oxidant line ; and a fuel pump installed at the main fuel line ; characterized by an electric motor installed between the oxidant pump and the fuel pump and uniaxially driving the oxidant pump and the fuel pump ; a cooling line branched from a side of the main oxidant line to guide a part of the oxidant to the electric motor , or branched from a side of the main fuel line to guide a part of the fuel to the electric motor ; and a cooling part connected to the cooling line so as to allow fluid flow therebetween and installed at the electric motor; wherein at least one of the oxidant and the fuel is transferred to the cooling line to cool the electric motor .
A method for controlling settings of an ultrasound scanner, the method comprising: acquiring an ultrasound image feed according to a first preset by sequentially obtaining ultrasound data frames that are converted to viewable image frames; and during acquisition of the ultrasound image feed: acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; wherein prior to changing the first preset to the second preset, at least the latest of the ultrasound control data frames is processed against an artificial intelligence model to predict a suitable preset for the ultrasound image feed, and the predicted suitable preset is used as the second preset that the ultrasound scanner is changed to. acquiring an ultrasound image feed according to a first preset by sequentially obtaining ultrasound data frames that are converted to viewable image frames; and during acquisition of the ultrasound image feed: acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; acquiring, using reference scan parameters, ultrasound control data frames that are interspersed amongst the ultrasound data frames, the reference scan parameters being consistently used for the interspersed ultrasound control data frames regardless of scan parameters that are used for acquiring the ultrasound image feed, and wherein the ultrasound control data frames are not converted to viewable image frames; and using the ultrasound control data frames to control the settings of the ultrasound scanner, said control of the settings of the ultrasound scanner comprising changing the first preset to a second preset different from the first preset; wherein prior to changing the first preset to the second preset, at least the latest of the ultrasound control data frames is processed against an artificial intelligence model to predict a suitable preset for the ultrasound image feed, and the predicted suitable preset is used as the second preset that the ultrasound scanner is changed to.
A process for improving the cure characteristics of a polymerizable 1,1-disubstituted ethylene monomer according to the formula: wherein R is H, X is selected from the group consisting of -CN and - COOR 3 and Y is selected from the group consisting of -CN and -COOR 3 , wherein R 3 is: a C 1 to C 8 hydrocarbyl group; or a group having the formula -R 7 -C(O)O-R 8 , wherein R 7 is -(CH 2 ) n -, n is 1 to 5, and R 8 is H or a C 1 to C 8 hydrocarbyl group, said process comprising the steps of contacting the 1,1-disubstituted ethylene monomer with from about 0.5 to 20 weight percent alumina, based on the weight of the monomer, having a pH of from 5.5 to 8.0 at a temperature from 0 °C to 150 °C for from 5 minutes to 20 hours and then isolating and recovering the treated monomer from the alumina. a C 1 to C 8 hydrocarbyl group; or a group having the formula -R 7 -C(O)O-R 8 , wherein R 7 is -(CH 2 ) n -, n is 1 to 5, and R 8 is H or a C 1 to C 8 hydrocarbyl group,
A segmented linear ion trap comprising: at least two discrete trapping regions for processing ions; a RF electrical potential generator for producing two RF waveforms , and arranged to apply each to a pair of pole electrodes of the linear ion trap forming a RF trapping field component to confine ions radially; a multi-output DC electrical potential generator for producing multiple DC field components superimposed to the RF field component and distributed across the length of the linear ion trap to control ions axially; and a control unit configured to switch the DC electrical potentials and corresponding DC field components collectively forming a first trapping region of the at least two discrete trapping regions that is populated with ions axially confined therein to alter ion potential energy from a first ion potential energy level to a second ion potential energy level by simultaneously changing the DC electrical potentials of the first trapping region between a first DC electrical potential level and a second DC electrical potential level , and to enable a first ion processing step in at least one of the first and second ion potential energy levels . at least two discrete trapping regions for processing ions; a RF electrical potential generator for producing two RF waveforms , and arranged to apply each to a pair of pole electrodes of the linear ion trap forming a RF trapping field component to confine ions radially; a multi-output DC electrical potential generator for producing multiple DC field components superimposed to the RF field component and distributed across the length of the linear ion trap to control ions axially; and a control unit configured to switch the DC electrical potentials and corresponding DC field components collectively forming a first trapping region of the at least two discrete trapping regions that is populated with ions axially confined therein to alter ion potential energy from a first ion potential energy level to a second ion potential energy level by simultaneously changing the DC electrical potentials of the first trapping region between a first DC electrical potential level and a second DC electrical potential level , and to enable a first ion processing step in at least one of the first and second ion potential energy levels .
A linkage arrangement for moveably connecting an attachment to a work machine , said linkage arrangement comprising: a first linkage group having an upper arm with a machine upper pivot point for connecting to the work machine and an attachment upper pivot point for connecting to the attachment , and a lower arm with a machine lower pivot point for connecting to the work machine and an attachment lower pivot point for connecting to the attachment ; a variable length actuator extending between the upper and lower arms , wherein the actuator has an upper pivot point generally located between the machine and the attachment upper pivot point of the upper arm , whereby during normal operation an increase in the length of the actuator results in the attachment being lowered relative to the work machine , characterised in that the actuator has a lower pivot point generally located between the machine and the attachment lower pivot point of the lower arm . a first linkage group having an upper arm with a machine upper pivot point for connecting to the work machine and an attachment upper pivot point for connecting to the attachment , and a lower arm with a machine lower pivot point for connecting to the work machine and an attachment lower pivot point for connecting to the attachment ; a variable length actuator extending between the upper and lower arms , wherein the actuator has an upper pivot point generally located between the machine and the attachment upper pivot point of the upper arm , whereby during normal operation an increase in the length of the actuator results in the attachment being lowered relative to the work machine , characterised in that the actuator has a lower pivot point generally located between the machine and the attachment lower pivot point of the lower arm .
A heating, ventilation, and air conditioning ("HVAC") system operable to condition an enclosed space, the HVAC system comprising: an evaporator operable to cool and/or dehumidify air circulating through the HVAC system , the evaporator comprising one or more evaporator circuits , the one or more evaporator circuits comprising: a first portion adapted to receive the refrigerant from a first refrigerant path (A); a second portion adapted to receive the refrigerant from a second refrigerant path (B); a valve operable to permit or restrict the flow of the refrigerant to the second portion of the one or more evaporator circuits ; an air blower operable to push at least a minimum volume of air into the enclosed space; and a controller comprising processing circuitry and a computer readable storage medium comprising instructions that, when executed by the processing circuitry, cause the controller to: determine a first value associated with the HVAC system , wherein the first value is calculated based on a ratio of a speed of the air blower to a total capacity of the HVAC system ; and close the valve such that the refrigerant cannot flow to the second portion of the evaporator circuits upon determining that: the first value exceeds a cooling threshold; or the first value exceeds a dehumidification threshold. a first portion adapted to receive the refrigerant from a first refrigerant path (A); a second portion adapted to receive the refrigerant from a second refrigerant path (B); a valve operable to permit or restrict the flow of the refrigerant to the second portion of the one or more evaporator circuits ; an air blower operable to push at least a minimum volume of air into the enclosed space; and a controller comprising processing circuitry and a computer readable storage medium comprising instructions that, when executed by the processing circuitry, cause the controller to: determine a first value associated with the HVAC system , wherein the first value is calculated based on a ratio of a speed of the air blower to a total capacity of the HVAC system ; and close the valve such that the refrigerant cannot flow to the second portion of the evaporator circuits upon determining that: the first value exceeds a cooling threshold; or the first value exceeds a dehumidification threshold. determine a first value associated with the HVAC system , wherein the first value is calculated based on a ratio of a speed of the air blower to a total capacity of the HVAC system ; and close the valve such that the refrigerant cannot flow to the second portion of the evaporator circuits upon determining that: the first value exceeds a cooling threshold; or the first value exceeds a dehumidification threshold. the first value exceeds a cooling threshold; or the first value exceeds a dehumidification threshold.
An assay method for analysis of total phenol and polyphenol concentration in aqueous liquid samples, comprising the steps of (a) putting a drop of the sample onto the test paper previously impregnated with the Folin-Ciocalteu reagent thus forming a test spot; (b) adding a drop of an aqueous alkaline solution to the test spot on the test paper; (c) placing the test paper on the reference colour card with the test spot in proximity of red, green, and blue reference areas printed on the reference colour card; (d) taking a colour photograph of the test spot on the test paper along with the red, green, and blue areas on the reference colour card; (e) performing colour analysis of the photograph in the RGB scheme, normalized in reference to the red, green, and blue areas on the reference colour card, and obtaining colour value measurement; (f) assessing of total phenol and polyphenol concentration based on red, green and blue, preferably green and blue, colour value measurements. (a) putting a drop of the sample onto the test paper previously impregnated with the Folin-Ciocalteu reagent thus forming a test spot; (b) adding a drop of an aqueous alkaline solution to the test spot on the test paper; (c) placing the test paper on the reference colour card with the test spot in proximity of red, green, and blue reference areas printed on the reference colour card; (d) taking a colour photograph of the test spot on the test paper along with the red, green, and blue areas on the reference colour card; (e) performing colour analysis of the photograph in the RGB scheme, normalized in reference to the red, green, and blue areas on the reference colour card, and obtaining colour value measurement; (f) assessing of total phenol and polyphenol concentration based on red, green and blue, preferably green and blue, colour value measurements.
A seat core material for vehicle comprising: a thermoplastic resin expanded bead article ; and a frame member embedded in a peripheral edge portion of the expanded bead article, wherein the expanded bead article has two or more lightening parts in an area from a center portion as seen in a front-back direction to a rear side, a through or non-through slit is provided in a continuous part between the lightening parts or an area in front of the continuous part over a distance of 100 mm or less along a vehicle-width direction of the expanded bead article, and the slit is closed at both longitudinal ends. a thermoplastic resin expanded bead article ; and a frame member embedded in a peripheral edge portion of the expanded bead article, wherein the expanded bead article has two or more lightening parts in an area from a center portion as seen in a front-back direction to a rear side, a through or non-through slit is provided in a continuous part between the lightening parts or an area in front of the continuous part over a distance of 100 mm or less along a vehicle-width direction of the expanded bead article, and the slit is closed at both longitudinal ends.
A phantom for the simulation and/or training of a percutaneous endoscopic gastrostomy comprising finding a point suitable for the placement of a percutaneous endoscopic gastrostomy in the abdominal wall and in the front or ventral stomach wall located therebelow by way of diaphanoscopy, the phantom comprising a container which encloses an interior , with a covering , which comprises, one on top of another, at least one reproduction of abdominal wall layers and at least one reproduction of stomach wall layers , wherein the reproduction of the stomach wall layers is oriented towards the interior, and at least one digital video camera in the interior , which depicts at least one region of the reproduction of the stomach wall layers , wherein the at least one reproduction of the abdominal wall layers and the at least one reproduction of the stomach wall layers are movable at least partially towards one another, the container is closed in order to simulate a closed abdomen, wherein the container has a side wall with an inlet opening for inserting at least one endoscope into the interior , wherein the inlet opening is sealed with a flexible and light-proof material in order to prevent any undesired incidence of light from outside, and in that the reproductions of the abdominal wall layers and the stomach wall layers are suitable for the diaphanoscopy and, to this end, have a sufficient light permeability.
A seat pan diaphragm assembly attachable to a seat frame, comprising: a diaphragm subassembly including a flexible fabric panel having a top , a bottom , a front , a back , and opposing lateral sides; a cargo net subassembly positioned against the bottom of the fabric panel for limiting deflection of the flexible fabric panel under load, the cargo net subassembly including a grid of belts and a plurality of attachment straps each terminating at a free end in a clip attachable to a seat frame member; and stiffeners distributing load forces to the attachment straps and helping maintain the shape integrity of the panel and prevent localized high tension zones in the panel the stiffeners being configured to secure the cargo net subassembly to the diaphragm subassembly ; the diaphragm subassembly further includes a slotted sleeve positioned along each of the opposing lateral sides, the plurality of lateral attachment straps extend outward beyond the opposing lateral sides of the flexible fabric panel , each of the lateral attachment straps terminating at a free end in its respective clip ; and the stiffeners are positioned in the slotted sleeves received through loops of the attachments straps . a diaphragm subassembly including a flexible fabric panel having a top , a bottom , a front , a back , and opposing lateral sides; a cargo net subassembly positioned against the bottom of the fabric panel for limiting deflection of the flexible fabric panel under load, the cargo net subassembly including a grid of belts and a plurality of attachment straps each terminating at a free end in a clip attachable to a seat frame member; and stiffeners distributing load forces to the attachment straps and helping maintain the shape integrity of the panel and prevent localized high tension zones in the panel the stiffeners being configured to secure the cargo net subassembly to the diaphragm subassembly ; the diaphragm subassembly further includes a slotted sleeve positioned along each of the opposing lateral sides, the plurality of lateral attachment straps extend outward beyond the opposing lateral sides of the flexible fabric panel , each of the lateral attachment straps terminating at a free end in its respective clip ; and the stiffeners are positioned in the slotted sleeves received through loops of the attachments straps .
A frame for an industrial truck, the frame forming part of a battery compartment and comprising: a back part , a front part opposed to the back part, and a side part connecting the back and the front parts on one side, thereby forming a space for the battery compartment; a bottom part in mechanical connection with said front, back and side parts and comprising an area for supporting a battery and an opening extending indefinitely away from said side part; and a bar that removably confines in a closed state said opening on a side opposing said side part and being configured to transfer force between its endpoints on said bottom part, wherein the bar is provided with an element configured to interact with a door assembly closing said battery compartment on a side opposed to the side part, said element forcing the bar into the closed state upon closing the door, characterized in that said element configured to interact with a door assembly is configured to interact slidably with a rail arranged on an inner side of the door assembly. a back part , a front part opposed to the back part, and a side part connecting the back and the front parts on one side, thereby forming a space for the battery compartment; a bottom part in mechanical connection with said front, back and side parts and comprising an area for supporting a battery and an opening extending indefinitely away from said side part; and a bar that removably confines in a closed state said opening on a side opposing said side part and being configured to transfer force between its endpoints on said bottom part, wherein the bar is provided with an element configured to interact with a door assembly closing said battery compartment on a side opposed to the side part, said element forcing the bar into the closed state upon closing the door, characterized in that said element configured to interact with a door assembly is configured to interact slidably with a rail arranged on an inner side of the door assembly.
Delivery system a) having a delivery vehicle for delivering inward goods , in particular material rolls ; b) having an automated transfer assembly for transferring the goods in an automated manner from the delivery vehicle to a goods store , wherein the transfer assembly comprises an object detection device ; and c) having a safety installation for securing a movement range of the transfer assembly when unloading the goods , wherein d) the transfer assembly comprises a first navigation installation and a second navigation installation which differs from the first navigation installation, e) the first navigation installation is active when displacing the transfer assembly , characterized in that f) the second navigation installation is active upon the identification of an item of the goods to be gripped, g) the first navigation installation utilizes a navigation sensor , and h) the second navigation installation utilizes a goods identification device . a) having a delivery vehicle for delivering inward goods , in particular material rolls ; b) having an automated transfer assembly for transferring the goods in an automated manner from the delivery vehicle to a goods store , wherein the transfer assembly comprises an object detection device ; and c) having a safety installation for securing a movement range of the transfer assembly when unloading the goods , wherein d) the transfer assembly comprises a first navigation installation and a second navigation installation which differs from the first navigation installation, e) the first navigation installation is active when displacing the transfer assembly , characterized in that f) the second navigation installation is active upon the identification of an item of the goods to be gripped, g) the first navigation installation utilizes a navigation sensor , and h) the second navigation installation utilizes a goods identification device .