mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented route planning method, comprising: determining source and destination nodes in a graph data structure based on a route planning query, wherein the graph structure represents a road network; executing an initial graph search on the graph data structure using graph costs based on real-time traffic data, wherein the initial graph search starts at the source node and settles nodes until it stops upon locating one or more nodes that are more than a predetermined travel time from the source node; computing one or more routes to the destination node from one or more of said settled nodes using precomputed data based on traffic prediction data, thereby to determine a route from the source node to the destination node via one of said settled nodes; and providing the route from the source node to the destination node to a device for display; wherein the graph data structure is multi-sharded over multiple machines, and wherein additional nodes that are less than the predetermined travel time from the source node are included in a shard of the source node. determining source and destination nodes in a graph data structure based on a route planning query, wherein the graph structure represents a road network; executing an initial graph search on the graph data structure using graph costs based on real-time traffic data, wherein the initial graph search starts at the source node and settles nodes until it stops upon locating one or more nodes that are more than a predetermined travel time from the source node; computing one or more routes to the destination node from one or more of said settled nodes using precomputed data based on traffic prediction data, thereby to determine a route from the source node to the destination node via one of said settled nodes; and providing the route from the source node to the destination node to a device for display; wherein the graph data structure is multi-sharded over multiple machines, and wherein additional nodes that are less than the predetermined travel time from the source node are included in a shard of the source node.
A method of i) diagnosing mild traumatic brain injury (mTBI) in a subject, the method comprising determining the level of miR-502 in a fluid sample obtained from the subject up to 48 hours from injury, and/or ii) monitoring mTBI in a subject, the method comprising determining the level of miR-502 in a fluid sample obtained from the subject at least 2 days after injury, wherein the fluid sample comprises serum. i) diagnosing mild traumatic brain injury (mTBI) in a subject, the method comprising determining the level of miR-502 in a fluid sample obtained from the subject up to 48 hours from injury, and/or ii) monitoring mTBI in a subject, the method comprising determining the level of miR-502 in a fluid sample obtained from the subject at least 2 days after injury,
A housing tower, comprising: a chassis assembly configured to house a single rack tower and a pump assembly , wherein the rack tower is configured to receive a plurality of fluid packages , wherein the pump assembly is adapted to fluidly connect with the plurality of fluid packages upon receipt into the rack tower; and an agitation assembly configured to agitate the rack tower relative to the chassis assembly; wherein the chassis assembly remains stationary as the agitation assembly agitates the rack tower, characterised in that the agitation assembly is configured to agitate the rack tower by oscillating the rack tower about a single pivot point on the chassis assembly. a chassis assembly configured to house a single rack tower and a pump assembly , wherein the rack tower is configured to receive a plurality of fluid packages , wherein the pump assembly is adapted to fluidly connect with the plurality of fluid packages upon receipt into the rack tower; and an agitation assembly configured to agitate the rack tower relative to the chassis assembly; wherein the chassis assembly remains stationary as the agitation assembly agitates the rack tower, characterised in that the agitation assembly is configured to agitate the rack tower by oscillating the rack tower about a single pivot point on the chassis assembly.
A method of controlling a plurality of marine drives (10a-10d) on a multi-hull marine vessel , the method comprising: determining based on steering information that the multi-hull marine vessel is entering a turn; receiving a running trim position for each marine drive (10a-10d); and adjusting a trim position of at least a portion of the plurality of marine drives (10a-10d) from each respective running trim position so as to induce roll of the multi-hull marine vessel during the turn. determining based on steering information that the multi-hull marine vessel is entering a turn; receiving a running trim position for each marine drive (10a-10d); and adjusting a trim position of at least a portion of the plurality of marine drives (10a-10d) from each respective running trim position so as to induce roll of the multi-hull marine vessel during the turn.
A toner cartridge comprising a toner discharging structure and a cartridge body and configured for use in an electronic imaging device, the toner discharging structure cooperatively coupled with the cartridge body to form the toner cartridge, the toner discharging structure comprising: an accelerating structure, wherein one end of the accelerating structure is connected to the cartridge body; blowing blades , connected to another end of the accelerating structure to allow a rotation speed of the blowing blades greater than a rotation speed of the cartridge body; a toner mixing unit , connected to the cartridge body, for receiving wind generated by the blowing blades; and a toner discharging unit, including a toner outlet connected to the toner mixing unit, characterized in that the toner mixing unit is configured to receive the wind generated by the blowing blades through an air duct ; the toner discharging structure further includes a push rod ; when the push rod is at a first position, the air duct is configured not to transmit the wind to the toner mixing unit; and when the push rod is at a second position, the air duct is configured to transmit the wind to the toner mixing unit. an accelerating structure, wherein one end of the accelerating structure is connected to the cartridge body; blowing blades , connected to another end of the accelerating structure to allow a rotation speed of the blowing blades greater than a rotation speed of the cartridge body; a toner mixing unit , connected to the cartridge body, for receiving wind generated by the blowing blades; and a toner discharging unit, including a toner outlet connected to the toner mixing unit, characterized in that the toner mixing unit is configured to receive the wind generated by the blowing blades through an air duct ; the toner discharging structure further includes a push rod ; when the push rod is at a first position, the air duct is configured not to transmit the wind to the toner mixing unit; and when the push rod is at a second position, the air duct is configured to transmit the wind to the toner mixing unit.
A communication method, comprising: obtaining (S201), by a terminal device, a first uplink resource, wherein the first uplink resource is used to send a data packet of a first service; obtaining (S202), by the terminal device, a second uplink resource, wherein the second uplink resource is used to send a data packet of a second service, and the first uplink resource and the second uplink resource completely or partially overlap in time domain, and wherein logical channels corresponding to the first service and the second service have different priorities; determining (S203), by the terminal device, a target uplink resource to be used in an overlapping time domain, wherein the target uplink resource is the first uplink resource or the second uplink resource; and sending (S204), by the terminal device, data on the target uplink resource in the overlapping time domain; when the target uplink resource is the second uplink resource and a hybrid automatic repeat request, HARQ, process of the first uplink resource is different from that of the second uplink resource, the method further comprises: sending, by the terminal device, data of the first service on a resource other than a third uplink resource in the first uplink resource, wherein the third uplink resource is a resource that is in the first uplink resource and that overlaps the second uplink resource in time domain. obtaining (S201), by a terminal device, a first uplink resource, wherein the first uplink resource is used to send a data packet of a first service; obtaining (S202), by the terminal device, a second uplink resource, wherein the second uplink resource is used to send a data packet of a second service, and the first uplink resource and the second uplink resource completely or partially overlap in time domain, and wherein logical channels corresponding to the first service and the second service have different priorities; determining (S203), by the terminal device, a target uplink resource to be used in an overlapping time domain, wherein the target uplink resource is the first uplink resource or the second uplink resource; and sending (S204), by the terminal device, data on the target uplink resource in the overlapping time domain; when the target uplink resource is the second uplink resource and a hybrid automatic repeat request, HARQ, process of the first uplink resource is different from that of the second uplink resource, the method further comprises: sending, by the terminal device, data of the first service on a resource other than a third uplink resource in the first uplink resource, wherein the third uplink resource is a resource that is in the first uplink resource and that overlaps the second uplink resource in time domain.
A battery monitoring system comprising: at least one battery ; a plurality of sensors attached to the battery; a monitoring device ; and a transceiving circuit configured to transmit a signal received from the monitoring device to the plurality of sensors and to transmit signals received from the plurality of sensors to the monitoring device, wherein the plurality of sensors generate surface acoustic waves, SAWs, in response to the signal received from the monitoring device, when receiving the signal from the monitoring device through the transceiving circuit, and wherein the plurality of sensors include: at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times. at least one battery ; a plurality of sensors attached to the battery; a monitoring device ; and a transceiving circuit configured to transmit a signal received from the monitoring device to the plurality of sensors and to transmit signals received from the plurality of sensors to the monitoring device, wherein the plurality of sensors generate surface acoustic waves, SAWs, in response to the signal received from the monitoring device, when receiving the signal from the monitoring device through the transceiving circuit, and wherein the plurality of sensors include: at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times. at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times.
Article for supporting a user in providing and tightening a knot, comprising - a knotting device comprising - a base section ; - a thread storage section provided on the base section ; and - a knot support element comprising at least one flap of a flat material folded into a frustoconical shape , the frustoconical shape being hollow and open on a base end of the frustoconical shape and on a tip end of the frustoconical shape ; and - a thread comprising a first end and a second end opposite the first end along the length of the thread , wherein - the first end of the thread is arranged in the thread storage section ; and - the second end of the thread forms a plurality of windings of a non-tightened knot, at least one of which is arranged on and around an outer surface of the frustoconical shape of the knot support element , the knot support element thereby supporting and holding open the non-tightened knot. - a knotting device comprising - a base section ; - a thread storage section provided on the base section ; and - a knot support element comprising at least one flap of a flat material folded into a frustoconical shape , the frustoconical shape being hollow and open on a base end of the frustoconical shape and on a tip end of the frustoconical shape ; and - a base section ; - a thread storage section provided on the base section ; and - a knot support element comprising at least one flap of a flat material folded into a frustoconical shape , the frustoconical shape being hollow and open on a base end of the frustoconical shape and on a tip end of the frustoconical shape ; and - a thread comprising a first end and a second end opposite the first end along the length of the thread , wherein - the first end of the thread is arranged in the thread storage section ; and - the second end of the thread forms a plurality of windings of a non-tightened knot, at least one of which is arranged on and around an outer surface of the frustoconical shape of the knot support element , the knot support element thereby supporting and holding open the non-tightened knot.
Isocyanate group-containing organosilicon compound of general formula below: wherein X is a monovalent hydrocarbon group of 1 to 4 carbon atoms, R is a monovalent hydrocarbon group of 1 to 6 carbon atoms, A is a divalent hydrocarbon group of 1 to 10 carbon atoms, n is an integer from 1 to 3 and R 1 is a hydrogen atom or a methyl group.
A system for detecting material accumulation relative to basket assemblies of an agricultural implement , the system including a frame assembly and a basket assembly configured to be supported by the frame assembly relative to a surface of a field, the system comprising: a load sensor configured to detect a load indicative of a draft load associated with the basket assembly ; and a computing system communicatively coupled to the load sensor , the computing system being configured to: monitor the load based on data provided by the load sensor ; and compare the monitored load to a load threshold, wherein the load threshold comprises a maximum load threshold, the computing system being configured to determine that field materials have accumulated relative to the basket assembly when the monitored load exceeds the maximum load threshold; the computing system being further configured to automatically initiate a control action when it is determined that field materials have accumulated relative to the basket assembly ; characterized by the computing system being further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a down pressure applied to the basket assembly . a load sensor configured to detect a load indicative of a draft load associated with the basket assembly ; and a computing system communicatively coupled to the load sensor , the computing system being configured to: monitor the load based on data provided by the load sensor ; and compare the monitored load to a load threshold, wherein the load threshold comprises a maximum load threshold, the computing system being configured to determine that field materials have accumulated relative to the basket assembly when the monitored load exceeds the maximum load threshold; the computing system being further configured to automatically initiate a control action when it is determined that field materials have accumulated relative to the basket assembly ; characterized by the computing system being further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a down pressure applied to the basket assembly . monitor the load based on data provided by the load sensor ; and compare the monitored load to a load threshold, wherein the load threshold comprises a maximum load threshold, the computing system being configured to determine that field materials have accumulated relative to the basket assembly when the monitored load exceeds the maximum load threshold; the computing system being further configured to automatically initiate a control action when it is determined that field materials have accumulated relative to the basket assembly ; characterized by the computing system being further configured to select the load threshold based at least in part on a ground speed of the agricultural implement and a down pressure applied to the basket assembly .
A composite film for EMI shielding having at least two layers, a top layer electrically conductive in all directions (isotropic), and a bottom layer electrically conductive only in the Z direction (anisotropic) after compression of the composite film with a heated pressure source, wherein: the top layer comprises a polymeric resin filled with conductive filler particles at a loading level effective to establish isotropic conductivity, said top layer conductive filler loading being 15 volume percent or greater with respect to the total composition of the top layer; the bottom layer comprises an adhesive polymeric resin filled with conductive particles at a loading level effective to establish anisotropic conductivity after compression of the composite film with a heated pressure source, said bottom layer conductive filler loading level being from 1 to 5 volume percent with respect to the total composition of the bottom layer; said bottom layer further comprises dielectric fillers with a particle size smaller than the particle size of the conductive filler, which dielectric fillers are present at a loading level in the range of 10 weight percent to 80 weight percent based on the composition of the bottom layer; and, the composite film is prepared either by laminating the conductive top layer to the bottom layer or by coating the bottom layer directly onto the top layer. the top layer comprises a polymeric resin filled with conductive filler particles at a loading level effective to establish isotropic conductivity, said top layer conductive filler loading being 15 volume percent or greater with respect to the total composition of the top layer; the bottom layer comprises an adhesive polymeric resin filled with conductive particles at a loading level effective to establish anisotropic conductivity after compression of the composite film with a heated pressure source, said bottom layer conductive filler loading level being from 1 to 5 volume percent with respect to the total composition of the bottom layer; said bottom layer further comprises dielectric fillers with a particle size smaller than the particle size of the conductive filler, which dielectric fillers are present at a loading level in the range of 10 weight percent to 80 weight percent based on the composition of the bottom layer; and, the composite film is prepared either by laminating the conductive top layer to the bottom layer or by coating the bottom layer directly onto the top layer.
A device for fastening objects to an outer surface of a building or object, wherein the device has a carrying part and a covering part , wherein the carrying part has the statically supporting function for the object to be fastened and the covering part the sealing function in relation to the building outer surface or object outer surface, and, for this purpose, is arranged on the outer side of the outer surface of the building or object, wherein the covering part is a dimensionally stable body, and the relative position of the covering part in relation to the carrying part is adjustable in the direction normal to the building surface or object surface, characterized in that at least two connecting parts for the object to be fastened protrude from the carrying part through openings in the covering part , wherein the covering part is cup-shaped and the open end face of its lateral surface is arranged facing the outer surface of the building. at least two connecting parts for the object to be fastened protrude from the carrying part through openings in the covering part , wherein the covering part is cup-shaped and the open end face of its lateral surface is arranged facing the outer surface of the building.
An imaging device comprising: a semiconductor substrate and pixels , wherein each of the pixels includes a first capacitive element , a photoelectric converting portion that converts light into charge, an impurity region electrically connected to the photoelectric converting portion and provided in the semiconductor substrate , a transistor electrically connected to the impurity region , and a third electrode , the first capacitive element includes a first electrode provided above the semiconductor substrate , a second electrode provided above the semiconductor substrate , and a dielectric layer located between the first electrode and the second electrode , at least one of the first electrode and the second electrode has a first electrical contact point electrically connected to the transistor and a second electrical contact point electrically connected to the third electrode , the first capacitive element includes a first trench portion and a second trench portion each having a trench shape, the impurity region is configured to accumulate the charge, the first electrical contact point is provided at the first trench portion , and the second electrical contact point is provided at the second trench portion . a semiconductor substrate and pixels , wherein each of the pixels includes a first capacitive element , a photoelectric converting portion that converts light into charge, an impurity region electrically connected to the photoelectric converting portion and provided in the semiconductor substrate , a transistor electrically connected to the impurity region , and a third electrode , the first capacitive element includes a first electrode provided above the semiconductor substrate , a second electrode provided above the semiconductor substrate , and a dielectric layer located between the first electrode and the second electrode , at least one of the first electrode and the second electrode has a first electrical contact point electrically connected to the transistor and a second electrical contact point electrically connected to the third electrode , the first capacitive element includes a first trench portion and a second trench portion each having a trench shape, the impurity region is configured to accumulate the charge, the first electrical contact point is provided at the first trench portion , and the second electrical contact point is provided at the second trench portion .