mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a current gaze direction of a user in relation to a three-dimensional ("3D") scene , the 3D scene being sampled by a rendering function to produce at least one projection image of the 3D scene , wherein the method comprises the steps: determining (S2), by a reprojection means , a reprojection transformation to be applied to the projection image before being displayed so as to be visible to the user at a gaze time point; determining (S3), by a gaze direction detection means , a physical gaze direction of the user at said gaze time point; and characterized by determining (S4), » by a modified gaze direction detection means , a modified gaze direction of the user at said gaze time point, the modified gaze direction being determined in relation to the 3D scene based on both the physical gaze direction and the reprojection transformation, wherein the determination of the modified gaze direction is performed without the rendering function obtaining direct information regarding the said modified gaze direction. determining (S2), by a reprojection means , a reprojection transformation to be applied to the projection image before being displayed so as to be visible to the user at a gaze time point; determining (S3), by a gaze direction detection means , a physical gaze direction of the user at said gaze time point; and characterized by determining (S4), » by a modified gaze direction detection means , a modified gaze direction of the user at said gaze time point, the modified gaze direction being determined in relation to the 3D scene based on both the physical gaze direction and the reprojection transformation, wherein the determination of the modified gaze direction is performed without the rendering function obtaining direct information regarding the said modified gaze direction.
Control valve intended to control the movements of the needle of a fuel injector , the valve comprising a coil capable of being fixed to the body of the injector and cooperating with an armature that can move between an open position close to the coil when said coil is energized and a closed position remote from the coil when said coil is not energized, the armature comprising a magnetic plate , from the centre of which a valve stem extends perpendicularly to the plate in an opposite direction to the coil as far as a distal end , said stem sliding in a bore in the injector body , the movements of the armature and of the stem opening or closing channels in which pressurized fuel circulates, characterized in that the armature is provided with a rapid discharge device for discharging the fuel which is trapped between the coil and the plate , and in that the discharge device comprises a discharge channel with a wide opening in the first face of the plate , arranged facing the coil , the discharge channel extending as far as an outlet , the outlet 60 being proximate to a second face of the plate and placing the space between coil and plate in fluidic communication with the base of a cavity through which the fuel can spread towards a low-pressure circuit, the discharge channel extending axially from one end of the piston to the other, from the centre of the first face of the plate as far as the distal end of the piston, and in that the axial discharge channel comprises a section with a smaller cross section forming a restriction , such that pressure waves spreading in the fuel are damped, the restriction being arranged in the vicinity of one of the ends of the discharge channel .
A method for preparing silicon-based active material particles, the method comprising: a step of providing silicon powder; a step of providing a pre-pulverization mixture, in which the silicon powder is dispersed in a solvent for dispersion comprising an antioxidant; a step of applying mechanical compression and shear stress to the silicon powder of the pre-pulverization mixture to granulate the silicon powder, thereby forming silicon particles having an oxygen content controlled by the antioxidant; and a step of drying the resulting product comprising the silicon particles to obtain silicon-based active material particles. a step of providing silicon powder; a step of providing a pre-pulverization mixture, in which the silicon powder is dispersed in a solvent for dispersion comprising an antioxidant; a step of applying mechanical compression and shear stress to the silicon powder of the pre-pulverization mixture to granulate the silicon powder, thereby forming silicon particles having an oxygen content controlled by the antioxidant; and a step of drying the resulting product comprising the silicon particles to obtain silicon-based active material particles.
A sprinkler system comprising: a fluid source ; a pipe coupled to the fluid source ; a sprinkler coupled to the pipe , the sprinkler including a bulb having an identification device located therein; a reader configured to read a sprinkler identification code from the identification device ; and a controller configured to receive the sprinkler identification code from the reader . a fluid source ; a pipe coupled to the fluid source ; a sprinkler coupled to the pipe , the sprinkler including a bulb having an identification device located therein; a reader configured to read a sprinkler identification code from the identification device ; and a controller configured to receive the sprinkler identification code from the reader .
Training device , for carrying out muscle training for a muscle, in particular for a specific muscle, of a person, comprising a control unit , a main body and a load measuring device arranged on the main body , wherein the muscle, in particular the specific muscle, is in contact with the load measuring device in a use position of the person and the load measuring device has a load sensor or a plurality of load sensors for determining a load exerted by the person onto the load measuring device at a respective measurement point correlated with a region of the muscle at a respective measurement point position, wherein the control unit has a signal unit and the control unit is set up in such a way that a contraction signal can be emitted to the person by the signal unit so that the person performs a signalled muscle contraction on the basis of the contraction signal and successful execution of the signalled muscle contraction can be verified by comparing a load profile determined by the load measuring device with a comparison load profile, in that a positive success signal is emitted in the event that the load profile and the comparison load profile correspond and a negative success signal is emitted in the event that the load profile and the comparison load profile do not correspond, characterised in that the training device has a chair or an armchair, and in that the signal unit has a mechanical actuator , wherein a mechanical contraction signal and/or a mechanical success signal can be emitted to the person by the mechanical actuator . wherein the control unit has a signal unit and the control unit is set up in such a way that a contraction signal can be emitted to the person by the signal unit so that the person performs a signalled muscle contraction on the basis of the contraction signal and successful execution of the signalled muscle contraction can be verified by comparing a load profile determined by the load measuring device with a comparison load profile, in that a positive success signal is emitted in the event that the load profile and the comparison load profile correspond and a negative success signal is emitted in the event that the load profile and the comparison load profile do not correspond, characterised in that the training device has a chair or an armchair, and in that the signal unit has a mechanical actuator , wherein a mechanical contraction signal and/or a mechanical success signal can be emitted to the person by the mechanical actuator .
Hard surface suction cleaner for suctioning a liquid-air mixture from a hard surface, in particular, from a window pane, comprising a suctioning device with a suction nozzle , a separating unit and a suction unit , and further comprising a dirty liquid tank and a handle ; the separating unit having a separating chamber in which at least one separating element is arranged, and which comprises a suction inlet , a liquid outlet and an air outlet , the suction inlet being in flow connection with the suction nozzle , the liquid outlet with the dirty liquid tank and the air outlet with the suction unit ; and the handle being arranged relative to an upright position of the hard surface suction cleaner below the suctioning device ; characterized in that the handle surrounds at least part of the dirty liquid tank .
A method of restoring an exhaled carbon dioxide (CO 2 ) concentration level, comprising: providing an input oxygen flow to a mask attached to a subject; using, a CO2 monitoring system configured to monitor CO 2 exhaled by the subject into the mask during a respiration cycle, to perform the steps of: drawing , from the mask , a gas sample (146; 320) including exhaled CO 2 and oxygen (O 2 ) admixture originating from the input oxygen flow ; detecting , in the gas sample, a concentration level for the CO 2 and for the O 2 admixture; and restoring a concentration level of the CO 2 as exhaled by the subject during the respiration cycle based on characteristics of the input oxygen flow and the concentration level of the oxygen admixture detected in the gas sample (146; 320); and displaying , on a computer display , for the respiration cycle, a signal representing the restored concentration level of the exhaled CO 2 . providing an input oxygen flow to a mask attached to a subject; using, a CO2 monitoring system configured to monitor CO 2 exhaled by the subject into the mask during a respiration cycle, to perform the steps of: drawing , from the mask , a gas sample (146; 320) including exhaled CO 2 and oxygen (O 2 ) admixture originating from the input oxygen flow ; detecting , in the gas sample, a concentration level for the CO 2 and for the O 2 admixture; and restoring a concentration level of the CO 2 as exhaled by the subject during the respiration cycle based on characteristics of the input oxygen flow and the concentration level of the oxygen admixture detected in the gas sample (146; 320); and drawing , from the mask , a gas sample (146; 320) including exhaled CO 2 and oxygen (O 2 ) admixture originating from the input oxygen flow ; detecting , in the gas sample, a concentration level for the CO 2 and for the O 2 admixture; and restoring a concentration level of the CO 2 as exhaled by the subject during the respiration cycle based on characteristics of the input oxygen flow and the concentration level of the oxygen admixture detected in the gas sample (146; 320); and displaying , on a computer display , for the respiration cycle, a signal representing the restored concentration level of the exhaled CO 2 .
A method of managing a wireless network connection, wherein the method comprises: querying, by a wireless access point, an abnormally accessing device list which is configured to record identification information of each abnormal mobile device (121, 122, ..., 12N) that accesses a wireless network via the wireless access point; determining, by the wireless access point, whether a number of abnormal mobile devices (121, 122, ..., 12N) recorded in the abnormally accessing device list exceeds a number threshold within a first set time period; and transmitting, by the wireless access point, a prompt message to a preset device , wherein the preset device corresponds to the wireless access point when the number of the abnormal mobile devices (121, 122, ..., 12N) accessing the wireless network within the first set time period exceeds the number threshold, and the prompt message is configured to prompt that access information of the wireless network is compromised; characterized in that the method further comprises: counting, by the wireless access point, a number of mobile devices accessing the wireless network within a second set time period, wherein the second set time period is a period of time when the access information of the wireless access point has not been compromised; and determining, by the wireless access point, the number threshold based on the number of mobile devices within the second set time period. querying, by a wireless access point, an abnormally accessing device list which is configured to record identification information of each abnormal mobile device (121, 122, ..., 12N) that accesses a wireless network via the wireless access point; determining, by the wireless access point, whether a number of abnormal mobile devices (121, 122, ..., 12N) recorded in the abnormally accessing device list exceeds a number threshold within a first set time period; and transmitting, by the wireless access point, a prompt message to a preset device , wherein the preset device corresponds to the wireless access point when the number of the abnormal mobile devices (121, 122, ..., 12N) accessing the wireless network within the first set time period exceeds the number threshold, and the prompt message is configured to prompt that access information of the wireless network is compromised; characterized in that the method further comprises: counting, by the wireless access point, a number of mobile devices accessing the wireless network within a second set time period, wherein the second set time period is a period of time when the access information of the wireless access point has not been compromised; and determining, by the wireless access point, the number threshold based on the number of mobile devices within the second set time period. counting, by the wireless access point, a number of mobile devices accessing the wireless network within a second set time period, wherein the second set time period is a period of time when the access information of the wireless access point has not been compromised; and determining, by the wireless access point, the number threshold based on the number of mobile devices within the second set time period.
A surgical stapler for stapling the tissue of a patient, comprising: a handle ; a shaft extending from said handle; a plurality of staple clusters , wherein each said staple cluster comprises a plurality of connected staples ; an end effector , comprising: a tissue compression surface ; and an anvil comprising staple forming pockets ; a staple cluster feeding system , comprising: a pusher configured to advance a said staple cluster into said end effector; a divider configured to separate the staples within the staple cluster that has been advanced into said end effector; and a guide configured to align said separated staples with said staple forming pockets; and a staple firing system configured to deploy said separated staples during a staple firing stroke. a handle ; a shaft extending from said handle; a plurality of staple clusters , wherein each said staple cluster comprises a plurality of connected staples ; an end effector , comprising: a tissue compression surface ; and an anvil comprising staple forming pockets ; a tissue compression surface ; and an anvil comprising staple forming pockets ; a staple cluster feeding system , comprising: a pusher configured to advance a said staple cluster into said end effector; a divider configured to separate the staples within the staple cluster that has been advanced into said end effector; and a guide configured to align said separated staples with said staple forming pockets; and a pusher configured to advance a said staple cluster into said end effector; a divider configured to separate the staples within the staple cluster that has been advanced into said end effector; and a guide configured to align said separated staples with said staple forming pockets; and a staple firing system configured to deploy said separated staples during a staple firing stroke.
A composition comprising a microRNA-inhibitor compound that inhibits at least one of miRNA-873-5p and miRNA-518d-5p for use in a method of treatment of a liver disease or condition in a subject, wherein when administrated to the subject the microRNA-inhibitor compound that inhibits at least one of miRNA-873-5p and miRNA-518d-5p decreases microRNA activity and increases glycine N-methyltransferase (GNMT) enzyme activity in at least one cell in the subject, and wherein the microRNA-inhibitor compound comprises one or more of an RNA molecule, an miRNA sponge compound, and an antisense inhibitor molecule.
An animal feeding device, comprising at least one cassette that comprises - a frame that comprises wall elements (3-8) that define an upper compartment and a lower compartment of the frame , - a food container housed in the upper compartment of the frame and supported by at least one wall element of the frame . - a food delivery device housed in the lower compartment of the frame , wherein said food container communicates with said food delivery device through an opening provided in a bottom portion of the food container , - wherein the frame has side wall elements (3-7) that define a width of the upper compartment , said animal feeding device being characterised in that the food container has side walls that are parallel in a longitudinal direction, have a constant distance between them in said longitudinal direction, are opposite to each other and in one end thereof are connected to and separated by a front wall and in an opposite end thereof are connected to and separated by an end wall which, at least along a lower part thereof, has an inclination towards a bottom portion of the food container , and that the distance between the respective outer surface of said side walls of the food container defines a width ( w ) of the food container , that the side walls of the food container are positioned opposite to and adjacent a respective of said side wall elements (3-7) of the frame , and that the width of the upper compartment corresponds to the width ( w ) of the container . - a frame that comprises wall elements (3-8) that define an upper compartment and a lower compartment of the frame , - a food container housed in the upper compartment of the frame and supported by at least one wall element of the frame . - a food delivery device housed in the lower compartment of the frame , wherein said food container communicates with said food delivery device through an opening provided in a bottom portion of the food container , - wherein the frame has side wall elements (3-7) that define a width of the upper compartment , said animal feeding device being characterised in that the food container has side walls that are parallel in a longitudinal direction, have a constant distance between them in said longitudinal direction, are opposite to each other and in one end thereof are connected to and separated by a front wall and in an opposite end thereof are connected to and separated by an end wall which, at least along a lower part thereof, has an inclination towards a bottom portion of the food container , and that the distance between the respective outer surface of said side walls of the food container defines a width ( w ) of the food container , that the side walls of the food container are positioned opposite to and adjacent a respective of said side wall elements (3-7) of the frame , and that the width of the upper compartment corresponds to the width ( w ) of the container .
An aircraft comprising an engine nacelle which includes a thrust reverser, a petal-type Variable Area Fan Nozzle , and a system comprising: a first coupling member attached to a first structure proximate to the thrust reverser of the aircraft; and a second coupling member attached to a translating portion of the thrust reverser, the translating portion configured to move relative to the first structure; wherein the first coupling member and the second coupling member are configured to engage to prevent movement of the translating portion; and the second coupling member is configured to transmit rotation from the first coupling member to an actuator configured to drive at least a portion of the Variable Area Fan Nozzle located on the translating portion, characterized in that the first coupling member and the second coupling member each comprise a gear , and the gears are configured to interlock with each other in a cooperating fit. a first coupling member attached to a first structure proximate to the thrust reverser of the aircraft; and a second coupling member attached to a translating portion of the thrust reverser, the translating portion configured to move relative to the first structure; wherein the first coupling member and the second coupling member are configured to engage to prevent movement of the translating portion; and the second coupling member is configured to transmit rotation from the first coupling member to an actuator configured to drive at least a portion of the Variable Area Fan Nozzle located on the translating portion, characterized in that the first coupling member and the second coupling member each comprise a gear , and the gears are configured to interlock with each other in a cooperating fit.
Method for generating a gas-product (SNG) comprising the following steps: a) Providing a first part (PF1) of a feed stream (FDS), b) Providing a second part (PF2) of a feed stream (FDS), c) Combining said first part (PF1) of said feed stream (FDS) with said second part (PF2) of said feed stream (FDS) into said feed stream (FDS), d) Heating at least one of i. said first part (PF1) of said feed stream (FDS), ii. said second part (PF2) of said feed stream (FDS) before step c, iii. said feed stream (FDS) after step c), e) Conducting the feed stream (FDS) into a reactor (RCT), f) Reacting the feed stream (FDS) into the gas-product (SNG). characterized by that step d) is as least partly performed by compressing the respective stream (FDS) by a supersonic compressor (SCO) such that the respective stream is heated. a) Providing a first part (PF1) of a feed stream (FDS), b) Providing a second part (PF2) of a feed stream (FDS), c) Combining said first part (PF1) of said feed stream (FDS) with said second part (PF2) of said feed stream (FDS) into said feed stream (FDS), d) Heating at least one of i. said first part (PF1) of said feed stream (FDS), ii. said second part (PF2) of said feed stream (FDS) before step c, iii. said feed stream (FDS) after step c), i. said first part (PF1) of said feed stream (FDS), ii. said second part (PF2) of said feed stream (FDS) before step c, iii. said feed stream (FDS) after step c), e) Conducting the feed stream (FDS) into a reactor (RCT), f) Reacting the feed stream (FDS) into the gas-product (SNG).