mhurhangee/ep-ind-claims huggingface dataset:
A diaphragm pump comprising: a motor serving as a driving source; a crank that is rotated by said motor; a pump chamber that is formed from a diaphragm including a diaphragm portion and expands/contracts in accordance with reciprocal motion of said diaphragm portion; a driver that reciprocally moves said diaphragm portion by an oscillation operation; a driving shaft that projects from said driver; wherein said driving shaft and said driver are integrally formed from a single material or different materials characterised in that: - the crank has a ring-shaped insertion groove in a upper surface, - the driving shaft engages with said insertion groove of said crank with respect to a rotation axis of said crank as a center; and - an engaging portion is formed in said insertion groove, and engages with said driving shaft to make said driving shaft follow the rotation of said crank. a motor serving as a driving source; a crank that is rotated by said motor; a pump chamber that is formed from a diaphragm including a diaphragm portion and expands/contracts in accordance with reciprocal motion of said diaphragm portion; a driver that reciprocally moves said diaphragm portion by an oscillation operation; a driving shaft that projects from said driver; wherein said driving shaft and said driver are integrally formed from a single material or different materials - the crank has a ring-shaped insertion groove in a upper surface, - the driving shaft engages with said insertion groove of said crank with respect to a rotation axis of said crank as a center; and - an engaging portion is formed in said insertion groove, and engages with said driving shaft to make said driving shaft follow the rotation of said crank.
An information processing device connectable to a plurality of display devices (31, 32, 33), the information processing device comprising: a graphic chip; a main link configured to connect the plurality of display devices (31, 32, 33) with the graphic chip; and a processor configured to: receive selections of display settings of the plurality of display devices (31, 32, 33) from a user, the display settings including resolutions of the plurality of display devices (31, 32, 33); characterized in that the processor is further configured to: calculate, from the selected display settings, a sum of data transfer rates of the main link to be used by the plurality of display devices (31, 32, 33) when the plurality of display devices (31, 32, 33) are configured in accordance with the display settings; and output graph information to be displayed, the graph information representing the sum of the data transfer rates of the main link to be used by the plurality of display devices (31, 32, 33) and a residual data transfer rate of the main link. a graphic chip; a main link configured to connect the plurality of display devices (31, 32, 33) with the graphic chip; and a processor configured to: receive selections of display settings of the plurality of display devices (31, 32, 33) from a user, the display settings including resolutions of the plurality of display devices (31, 32, 33); calculate, from the selected display settings, a sum of data transfer rates of the main link to be used by the plurality of display devices (31, 32, 33) when the plurality of display devices (31, 32, 33) are configured in accordance with the display settings; and output graph information to be displayed, the graph information representing the sum of the data transfer rates of the main link to be used by the plurality of display devices (31, 32, 33) and a residual data transfer rate of the main link.
A leg pad for a hockey goalkeeper, the leg pad being wearable on a leg of the hockey goalkeeper to protect the leg, the leg pad comprising a frontal portion, a medial portion, and a lateral portion respectively configured to be positioned adjacent to a front, a medial side, and a lateral side of the leg when the leg pad is worn on the leg, the leg pad comprising: a) a molded outer shell comprising an outer surface of the leg pad, the molded outer shell comprising an upper leg portion, a knee portion and a lower leg portion, the molded outer shell having a molded bend such that the molded outer shell is bent in a longitudinal direction of the leg pad; b) an inner liner for facing the leg; and c) protective padding disposed between the molded outer shell and the inner liner. a) a molded outer shell comprising an outer surface of the leg pad, the molded outer shell comprising an upper leg portion, a knee portion and a lower leg portion, the molded outer shell having a molded bend such that the molded outer shell is bent in a longitudinal direction of the leg pad; b) an inner liner for facing the leg; and c) protective padding disposed between the molded outer shell and the inner liner.
A method for increasing the annealing specificity of an amplification reaction, comprising contacting a nucleic acid sample under amplifying conditions with at least one primer comprising: (a) a 3'-segment complementary to a template sequence; (b) an iso-region at the 5'-end of the 3'-segment, wherein the iso-region comprises at least two contiguous non-standard bases, wherein the at least two contiguous non-standard bases are independently selected from the group consisting of: iso-C and iso-G, and wherein the iso-region does not hybridize with the template sequence; and (c) a 5'-segment at the 5'-end of the iso-region, wherein the 5'-segment comprises a nucleotide sequence of between 6 to 60 nucleotides complementary to the template sequence, wherein the at least one primer has increased annealing specificity for the template sequence compared to the primer having only the 3'-segment. (a) a 3'-segment complementary to a template sequence; (b) an iso-region at the 5'-end of the 3'-segment, wherein the iso-region comprises at least two contiguous non-standard bases, wherein the at least two contiguous non-standard bases are independently selected from the group consisting of: iso-C and iso-G, and wherein the iso-region does not hybridize with the template sequence; and (c) a 5'-segment at the 5'-end of the iso-region, wherein the 5'-segment comprises a nucleotide sequence of between 6 to 60 nucleotides complementary to the template sequence, wherein the at least one primer has increased annealing specificity for the template sequence compared to the primer having only the 3'-segment.
An inlet system for a precooler in an engine system comprising: an inlet having a leading edge; a vane associated with the inlet and having a vane leading edge, a duct configured to fluidly connecting the inlet with the precooler, so that an air flow may flow through the inlet, through the duct, and into the precooler; wherein in use the leading edge of the inlet is positioned relative to a direction of air flow such that a total pressure of air along the leading edge of the inlet is equalized within selected tolerances, wherein in use the leading edge of the inlet has a first angle relative to a first normal axis that is substantially normal to the direction of the air flow and wherein the vane leading edge has a second angle relative to a second normal axis that is substantially normal to the direction of the air flow, each of the first angle and the second angle being greater than 0 degrees and less than 90 degrees, wherein in use the vane leading edge is positioned relative to the direction of the air flow such that the total pressure of air along the vane leading edge is equalized within selected tolerances; characterized in that the first angle and the second angle of the vane leading edge and the leading edge of the inlet are different and configured such that lower portions of the leading edge of the inlet and the vane leading edge, respectively, encounter the air flow before upper portions of both leading edges for substantially equalizing the total pressure of air along these leading edges. an inlet having a leading edge; a vane associated with the inlet and having a vane leading edge, a duct configured to fluidly connecting the inlet with the precooler, so that an air flow may flow through the inlet, through the duct, and into the precooler; wherein in use the leading edge of the inlet is positioned relative to a direction of air flow such that a total pressure of air along the leading edge of the inlet is equalized within selected tolerances, wherein in use the leading edge of the inlet has a first angle relative to a first normal axis that is substantially normal to the direction of the air flow and wherein the vane leading edge has a second angle relative to a second normal axis that is substantially normal to the direction of the air flow, each of the first angle and the second angle being greater than 0 degrees and less than 90 degrees, wherein in use the vane leading edge is positioned relative to the direction of the air flow such that the total pressure of air along the vane leading edge is equalized within selected tolerances; characterized in that the first angle and the second angle of the vane leading edge and the leading edge of the inlet are different and configured such that lower portions of the leading edge of the inlet and the vane leading edge, respectively, encounter the air flow before upper portions of both leading edges for substantially equalizing the total pressure of air along these leading edges.
A method for forwarding a packet, comprising: receiving, by a core backbone device via a second-level stacking port connected with a source port extender device, a first packet containing a source port number and a local identifier of a source forwarding chip, the source port number identifying the source port of the PE device which received an original packet, wherein the PE device provides a port extension function for the CB device; determining a global identifier of the source forwarding chip based on an identifier of the source PE device and the local identifier of the source forwarding chip; learning a forwarding table entry based on a source address and the source port number of the first packet and the global identifier of the source forwarding chip; determining a destination port number and a global identifier of a destination forwarding chip based on a forwarding table entry matching a destination address of the first packet, the destination port number identifying the destination port of a destination PE device for forwarding the first packet; determining the destination PE device and a local identifier of the destination forwarding chip based on the global identifier of the destination forwarding chip; and transmitting the first packet via a second-level stacking port connected with the destination PE device, wherein the first packet contains the local identifier of the destination forwarding chip and the destination port number. receiving, by a core backbone device via a second-level stacking port connected with a source port extender device, a first packet containing a source port number and a local identifier of a source forwarding chip, the source port number identifying the source port of the PE device which received an original packet, wherein the PE device provides a port extension function for the CB device; determining a global identifier of the source forwarding chip based on an identifier of the source PE device and the local identifier of the source forwarding chip; learning a forwarding table entry based on a source address and the source port number of the first packet and the global identifier of the source forwarding chip; determining a destination port number and a global identifier of a destination forwarding chip based on a forwarding table entry matching a destination address of the first packet, the destination port number identifying the destination port of a destination PE device for forwarding the first packet; determining the destination PE device and a local identifier of the destination forwarding chip based on the global identifier of the destination forwarding chip; and transmitting the first packet via a second-level stacking port connected with the destination PE device, wherein the first packet contains the local identifier of the destination forwarding chip and the destination port number.
A process for the production of formaldehyde-stabilised urea comprising the steps of: (a) generating a synthesis gas comprising hydrogen, nitrogen, carbon monoxide, carbon dioxide and steam in a synthesis gas generation unit; (b) subjecting the synthesis gas to one or more stages of water-gas shift in one or more water-gas shift reactors to form a shifted gas; (c) cooling the shifted gas to below the dew point and recovering condensate to form a dried shifted gas; (d) recovering carbon dioxide from the dried shifted gas in a carbon dioxide removal unit to form a carbon dioxide-depleted synthesis gas; (e) synthesising methanol from the carbon dioxide-depleted synthesis gas in a methanol synthesis unit and recovering the methanol and a methanol synthesis off-gas comprising nitrogen, hydrogen and residual carbon monoxide; (f) subjecting at least a portion of the recovered methanol to oxidation with air to form formaldehyde in a stabiliser production unit; (g) subjecting the methanol synthesis off-gas to methanation in a methanation reactor containing a methanation catalyst to form an ammonia synthesis gas; (h) synthesising ammonia from the ammonia synthesis gas in an ammonia production unit and recovering the ammonia; (i) reacting a portion of the ammonia and a portion of the recovered carbon dioxide stream in a urea production unit to form a urea stream; and (j) stabilising the urea by mixing the urea stream and a stabiliser prepared using the formaldehyde produced in the stabiliser production unit, wherein the carbon dioxide removal unit operates by means of absorption using a liquid absorbent and comprises an absorbent regeneration unit, wherein the process includes recovering a carbon dioxide-containing gas stream from the absorbent regeneration unit, compressing a portion of the recovered carbon dioxide-containing gas stream to form a compressed carbon dioxide-containing gas stream and passing the compressed carbon dioxide-containing gas stream to the methanol synthesis unit.
A relay supported method for transmitting information in an uplink direction using a visible light signal, the method comprising the steps of: receiving, by a Relay Node, RN, which is detected by User Equipment, UE, information from the UE; processing, by the RN, the information from the UE; and forwarding, by the RN, the processed information to a visible service node, VS; and characterised in that the method further comprising when the UE simultaneously communicates with the RN and the VS, forwarding, by the UE, the information to the VS through the RN, and directly sending, by the UE, the information to the VS; and when information transmission rates of a transmission link between the UE and the RN and a transmission link between the RN and the VS are different, buffering, at the RN, the information flow having the higher transmission rate transmitted over any one of the two transmission links. receiving, by a Relay Node, RN, which is detected by User Equipment, UE, information from the UE; processing, by the RN, the information from the UE; and forwarding, by the RN, the processed information to a visible service node, VS; and characterised in that the method further comprising when the UE simultaneously communicates with the RN and the VS, forwarding, by the UE, the information to the VS through the RN, and directly sending, by the UE, the information to the VS; and when information transmission rates of a transmission link between the UE and the RN and a transmission link between the RN and the VS are different, buffering, at the RN, the information flow having the higher transmission rate transmitted over any one of the two transmission links.
Pneumatic conveying device for connection to a burner, with a charging end, a discharging end and a conveying gas feed for introducing conveying gas in order to transport pneumatically conveyable material to be conveyed from the charging end to the discharging end, wherein at least two separate pneumatic conveying lines are provided from the charging end to the discharging end, for distributing the stream of material to be conveyed from the charging end to the discharging end, characterized in that the at least two separate pneumatic conveying lines are brought together at the discharging end to form a common outlet opening for connecting to a burner. characterized in that the at least two separate pneumatic conveying lines are brought together at the discharging end to form a common outlet opening for connecting to a burner.
A charging method, the method comprising: obtaining (S 101) cell characteristic parameters of at least one cell contained in a battery; determining (S 102) a charging strategy for the battery based on the cell characteristic parameters, wherein different charging strategies correspond to respective charging parameters; and charging the battery based on the charging strategy, characterized by, wherein determining the charging strategy for the battery based on the cell characteristic parameters comprises: under a constant voltage charging mode, determining a cut-off charging current of the battery according to a present voltage of the cell, a present current of the cell and a present temperature of the cell; and the charging the battery based on the charging strategy comprises: under a constant voltage charging mode, charging the battery at a charging current greater than the cut-off charging current and a constant charging voltage. obtaining (S 101) cell characteristic parameters of at least one cell contained in a battery; determining (S 102) a charging strategy for the battery based on the cell characteristic parameters, wherein different charging strategies correspond to respective charging parameters; and charging the battery based on the charging strategy, characterized by, wherein determining the charging strategy for the battery based on the cell characteristic parameters comprises: under a constant voltage charging mode, determining a cut-off charging current of the battery according to a present voltage of the cell, a present current of the cell and a present temperature of the cell; and the charging the battery based on the charging strategy comprises: under a constant voltage charging mode, charging the battery at a charging current greater than the cut-off charging current and a constant charging voltage. under a constant voltage charging mode, determining a cut-off charging current of the battery according to a present voltage of the cell, a present current of the cell and a present temperature of the cell; and the charging the battery based on the charging strategy comprises: under a constant voltage charging mode, charging the battery at a charging current greater than the cut-off charging current and a constant charging voltage.
A vehicle comprising: a sensor part configured to acquire occupancy information of a surrounding area of the vehicle and a speed of the vehicle; a camera configured to acquire a surrounding image of the vehicle; and a controller configured to: form map information based on the occupancy information according to movement of the vehicle; determine presence or absence of an obstacle around the vehicle based on the map information and the surrounding image; and control, in response to the presence of the obstacle, the vehicle based on the presence of the obstacle and a possibility of collision of the vehicle derived from the speed of the vehicle and the map information, characterized in that the controller forms the map information by assigning a first weight to occupancy information of an area that is measured in real time; assigning a second weight greater than the first weight to occupancy information of an area that is previously measured and assigning a third weight to occupancy information corresponding to an obstacle undetected area. a sensor part configured to acquire occupancy information of a surrounding area of the vehicle and a speed of the vehicle; a camera configured to acquire a surrounding image of the vehicle; and a controller configured to: form map information based on the occupancy information according to movement of the vehicle; determine presence or absence of an obstacle around the vehicle based on the map information and the surrounding image; and control, in response to the presence of the obstacle, the vehicle based on the presence of the obstacle and a possibility of collision of the vehicle derived from the speed of the vehicle and the map information, form map information based on the occupancy information according to movement of the vehicle; determine presence or absence of an obstacle around the vehicle based on the map information and the surrounding image; and control, in response to the presence of the obstacle, the vehicle based on the presence of the obstacle and a possibility of collision of the vehicle derived from the speed of the vehicle and the map information, characterized in that the controller forms the map information by assigning a first weight to occupancy information of an area that is measured in real time; assigning a second weight greater than the first weight to occupancy information of an area that is previously measured and assigning a third weight to occupancy information corresponding to an obstacle undetected area.
An apparatus comprising: a small form factor mobile platform including a system-on-package architecture, the system-on-package architecture arranged as a stack of layers including: a first layer having a first conformable material; a second layer having a second conformable material, wherein the first layer is arranged directly on the second layer; a third layer having a third material, wherein the second layer is arranged directly on the third layer and wherein the first and second conformable materials are more flexible or pliable than the third material; and one or more electronic and/or radio frequency components embedded within the first and second layers, wherein the first conformable material, the second conformable material, or both exhibit a low loss tangent at high frequency and are therefore configured to route radio frequency signals and the third material is configured to route digital signals. a small form factor mobile platform including a system-on-package architecture, the system-on-package architecture arranged as a stack of layers including: a first layer having a first conformable material; a second layer having a second conformable material, wherein the first layer is arranged directly on the second layer; a third layer having a third material, wherein the second layer is arranged directly on the third layer and wherein the first and second conformable materials are more flexible or pliable than the third material; and one or more electronic and/or radio frequency components embedded within the first and second layers, a first layer having a first conformable material; a second layer having a second conformable material, wherein the first layer is arranged directly on the second layer; a third layer having a third material, wherein the second layer is arranged directly on the third layer and wherein the first and second conformable materials are more flexible or pliable than the third material; and one or more electronic and/or radio frequency components embedded within the first and second layers,
Terpolymer of ethylene, of 1,3-diene and of an aromatic α-monoolefin in which the molar ratio of the contents of the ethylene units to the sum of the contents of the ethylene units and of the 1,3-diene units is greater than 0.7, which terpolymer contains more than 50 mol% to 80 mol% of ethylene units and from 10 mol% to less than 40 mol% of aromatic α-monoolefin units, the 1,3-diene being 1,3-butadiene or isoprene, which terpolymer is preferably an elastomer.