mhurhangee/ep-ind-claims huggingface dataset:
A method for operating stations in a cooperative station network, preferably a vehicular ad hoc network, wherein stations (V1, V2, V3, V4) transmit signals and receive signals from other stations, comprising the steps of a) Determining a path loss between at least two stations (V1, V2, V3, V4), b) Determining a carrier sense range (r CS) for signals of a station (V1, V2, V3, V4) based on the path loss and received power of signals from other stations (V1, V2, V3, V4), c) Determining a load on a dedicated signal exchange channel based on the carrier sense range according to step b), wherein for determining said load, neighbor station information, including at least one of signal sending rate (b), signal size (b s) and/or station density (p), is used; d) Determining a maximum output power for a station (V1, V2, V3, V4) based on the determined load according to step c) e) Operating the station (V1, V2, V3, V4) by adjusting the output power of the station (V1, V2, V3, V4), so that the output power is below the determined maximum output power (p*) for this station, at least on average. a) Determining a path loss between at least two stations (V1, V2, V3, V4), b) Determining a carrier sense range (r CS) for signals of a station (V1, V2, V3, V4) based on the path loss and received power of signals from other stations (V1, V2, V3, V4), c) Determining a load on a dedicated signal exchange channel based on the carrier sense range according to step b), wherein for determining said load, neighbor station information, including at least one of signal sending rate (b), signal size (b s) and/or station density (p), is used; d) Determining a maximum output power for a station (V1, V2, V3, V4) based on the determined load according to step c) e) Operating the station (V1, V2, V3, V4) by adjusting the output power of the station (V1, V2, V3, V4), so that the output power is below the determined maximum output power (p*) for this station, at least on average.
A homogeneous teverelix-TFA composition having a molar ratio of teverelix (Ac-D-Nal-D-pClPhe-D-Pal-Ser-Tyr-D-Hci-Leu-Lys(iPr)-Pro-D-Ala-NH 2) to trifluoroacetate of at least 1:2.4 and at or below 1:2.8, such that for each mole teverelix in the composition the composition comprises at least 2.4 mol trifluoroacetate and at or below 2.8 mol trifluoroacetate, and wherein the amount of insoluble microcrystalline teverelix in said composition is at least 80 weight% based on the weight of the homogeneous teverelix-TFA composition.
A coffee machine comprising a coffee grinder, wherein the coffee grinder comprises: - a grinding tool for grinding coffee beans, - a motor for driving the grinding tool, - a stall detector for detecting a stall condition of the grinding tool and/or of the motor, characterized in that the coffee grinder further comprises - a reversal unit configured to temporarily reverse a direction of rotation (28, 28') of the grinding tool and/or of the motor if the stall detector detects a stall condition. - a grinding tool for grinding coffee beans, - a motor for driving the grinding tool, - a stall detector for detecting a stall condition of the grinding tool and/or of the motor, characterized in that the coffee grinder further comprises - a reversal unit configured to temporarily reverse a direction of rotation (28, 28') of the grinding tool and/or of the motor if the stall detector detects a stall condition.
A method implemented on a computer-based navigation program for providing route guidance to a desired destination, the method comprising the steps of: after calculating a first route for driving a vehicle toward the desired destination with the computer-based navigation program that uses a geographic database that includes data representing segments of roads in a geographic area, calculating a second route using the geographic database, wherein said second route provides for reaching the desired destination by foot; and providing an end user of the computer-based navigation program with information for walking said second route; characterised in that the method calculates the second route while the vehicle is travelling toward the desired destination. after calculating a first route for driving a vehicle toward the desired destination with the computer-based navigation program that uses a geographic database that includes data representing segments of roads in a geographic area, calculating a second route using the geographic database, wherein said second route provides for reaching the desired destination by foot; and providing an end user of the computer-based navigation program with information for walking said second route; characterised in that the method calculates the second route while the vehicle is travelling toward the desired destination.
A method of exploitation of a well using a pumping unit with a variable-frequency drive, comprising periodically repeating pumpdown, search of stopping delivery frequency, and accumulation cycles, the method characterized by: selecting a pumping unit with higher production capacity in comparison with inflow of fluid from formation into the well for ensuring extracting an amount of the fluid equal to the inflow; during the cycles correcting the pumpdown-accumulation ratio depending on the results of previous cycles until the pumpdown-accumulation time ratio stops changing; and determining when the delivery stops based on a current torque on a shaft of a downhole motor being equal to a check torque, wherein the check torque is predetermined based on a stepwise drop of a torque on the shaft of the downhole motor at a point when the delivery stops at a decrease of a supply voltage. selecting a pumping unit with higher production capacity in comparison with inflow of fluid from formation into the well for ensuring extracting an amount of the fluid equal to the inflow; during the cycles correcting the pumpdown-accumulation ratio depending on the results of previous cycles until the pumpdown-accumulation time ratio stops changing; and determining when the delivery stops based on a current torque on a shaft of a downhole motor being equal to a check torque, wherein the check torque is predetermined based on a stepwise drop of a torque on the shaft of the downhole motor at a point when the delivery stops at a decrease of a supply voltage.
An elevator system comprising: an ascending/descending body being raised and lowered in a hoistway; a controller for monitoring whether or not a speed of the ascending/descending body reaches a preset overspeed; characterized by a buffer provided in a lower part of the hoistway; a stopper being interposed between the buffer and the ascending/descending body at a time of maintenance work to limit a lowered position of the ascending/descending body; and stopper detection means for detecting installation of the stopper onto at least one of the buffer and the ascending/descending body, wherein the controller lowers a set value of the overspeed when the stopper is detected by the stopper detection means. an ascending/descending body being raised and lowered in a hoistway; a controller for monitoring whether or not a speed of the ascending/descending body reaches a preset overspeed; characterized by a buffer provided in a lower part of the hoistway; a stopper being interposed between the buffer and the ascending/descending body at a time of maintenance work to limit a lowered position of the ascending/descending body; and stopper detection means for detecting installation of the stopper onto at least one of the buffer and the ascending/descending body, wherein the controller lowers a set value of the overspeed when the stopper is detected by the stopper detection means.
A vibration isolator for a system, comprising: a loop flexure; a plurality of relatively rigid members (210, 212) attached to the loop flexure at attachment points; a constrained layer of viscoelastic material; and a coupler for coupling the relatively rigid members to the constrained layer of VEM to oppose relative translational and rotational motion between the attachment points of the flexure wherein the constrained layer of VEM operates in parallel to a load path of the system. a loop flexure; a plurality of relatively rigid members (210, 212) attached to the loop flexure at attachment points; a constrained layer of viscoelastic material; and a coupler for coupling the relatively rigid members to the constrained layer of VEM to oppose relative translational and rotational motion between the attachment points of the flexure wherein the constrained layer of VEM operates in parallel to a load path of the system.
A composite material, comprising: a support member, comprising a plurality of pores extending through the support member; and a macroporous cross-linked gel, wherein the cross-linked gel comprises a polymer derived from a first monomer and a first cross-linker; wherein the macroporous cross-linked gel is located in the pores of the support member; the macroporous cross-linked gel has macropores that are smaller than the pores of the support member; the first monomer comprises two thiol functional groups; and the first cross-linker comprises (i) at least three carbon-carbon double bonds, (ii) at least two carbon-carbon triple bonds, or (iii) at least one carbon-carbon triple bond and at least one carbon-carbon double bond. a support member, comprising a plurality of pores extending through the support member; and a macroporous cross-linked gel, wherein the cross-linked gel comprises a polymer derived from a first monomer and a first cross-linker; wherein the macroporous cross-linked gel is located in the pores of the support member; the macroporous cross-linked gel has macropores that are smaller than the pores of the support member; the first monomer comprises two thiol functional groups; and the first cross-linker comprises (i) at least three carbon-carbon double bonds, (ii) at least two carbon-carbon triple bonds, or (iii) at least one carbon-carbon triple bond and at least one carbon-carbon double bond.
A zoom lens system comprising a negative first lens group, a positive second lens group, a negative third lens group, and a positive fourth lens group, in that order from the object side, wherein upon zooming from the short focal length extremity to the long focal length extremity, the distance between said first lens group and said second lens group decreases, the distance between said second lens group and said third lens group increases, and the distance between said third lens group and said fourth lens group decreases, wherein said second lens group includes a positive first sub-lens group (G2a), a positive second sub-lens group (G2b) and a third sub-lens group (G2c), in that order from the object side, and wherein said third sub-lens group (G2c) includes a cemented lens, provided with a negative meniscus lens element having a convex surface on the object side and a positive meniscus lens element having a convex surface on the object side, in that order from the object side.
An Integrally Bladed Rotor comprising: a rotor hub that defines a hub face (68, 70), a hub rim, and a hub inner surface facing a longitudinal axis about which the rotor hub is configured to rotate and having a circumferential groove within said hub inner surface; and the hub face (68, 70) is a front face or a rear face, the hub rim is transverse to the hub face (68, 70), and the hub face (68, 70) extends radially inwardly from the hub rim to the hub inner surface; and characterized in that the Integrally Bladed Rotor further comprises a split ring damper mounted within said circumferential groove and in contact with said hub face (68, 70); and said damper includes a first leg and a second leg, said first leg engaged within said circumferential groove and said second leg in contact with said hub face (68, 70), with an interface between the first leg and the second leg surrounding a radial lip of the hub inner surface. a rotor hub that defines a hub face (68, 70), a hub rim, and a hub inner surface facing a longitudinal axis about which the rotor hub is configured to rotate and having a circumferential groove within said hub inner surface; and the hub face (68, 70) is a front face or a rear face, the hub rim is transverse to the hub face (68, 70), and the hub face (68, 70) extends radially inwardly from the hub rim to the hub inner surface; and characterized in that the Integrally Bladed Rotor further comprises a split ring damper mounted within said circumferential groove and in contact with said hub face (68, 70); and said damper includes a first leg and a second leg, said first leg engaged within said circumferential groove and said second leg in contact with said hub face (68, 70), with an interface between the first leg and the second leg surrounding a radial lip of the hub inner surface.
A method of non-contact dispensing a hot melt adhesive onto a substrate, the method comprising: jetting a plurality of minute droplets of the hot melt adhesive from a nozzle outlet toward the substrate in a direction of travel, each droplet of the hot melt adhesive being elongate and having a droplet length (D L) approximately aligned with the direction of travel and a droplet width (D W) shorter than the droplet length; and controlling the jetting such that each of the droplets of the hot melt adhesive remains elongate and does not reshape into a spherical-shaped droplet during flight between the nozzle outlet and the substrate, characterized in that, the substrate includes a groove defining a groove width of 0,5 millimeters or less, each droplet of the hot melt adhesive is sized such that the droplet width would be about 1,0 millimeter if the droplet reshaped into a spherical shape, and jetting the hot melt adhesive further comprises: applying the plurality of droplets into the groove on the substrate such that none of the hot melt adhesive flows out of the groove. jetting a plurality of minute droplets of the hot melt adhesive from a nozzle outlet toward the substrate in a direction of travel, each droplet of the hot melt adhesive being elongate and having a droplet length (D L) approximately aligned with the direction of travel and a droplet width (D W) shorter than the droplet length; and controlling the jetting such that each of the droplets of the hot melt adhesive remains elongate and does not reshape into a spherical-shaped droplet during flight between the nozzle outlet and the substrate, the substrate includes a groove defining a groove width of 0,5 millimeters or less, each droplet of the hot melt adhesive is sized such that the droplet width would be about 1,0 millimeter if the droplet reshaped into a spherical shape, and jetting the hot melt adhesive further comprises: applying the plurality of droplets into the groove on the substrate such that none of the hot melt adhesive flows out of the groove. applying the plurality of droplets into the groove on the substrate such that none of the hot melt adhesive flows out of the groove.
A method of transmitting a signal, by an apparatus having a plurality of antennas in a wireless communication system, comprising: mapping complex modulation symbols to L number of layers; sequentially applying a unit matrix U, a diagonal matrix D, and a precoding matrix W to the complex modulation symbols mapped to the L number of layers; and mapping symbols mapped to a plurality of demodulation reference signal, DMRS, ports by applying the W and the D to a resource and transmitting the symbols, wherein the W corresponds to one of M number of precoder set, characterized in that: the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the M*L when the L is less than a predetermined number, the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the L when the L is greater than or equal to the predetermined number, wherein the M number is 2 or 4, and, wherein the predetermined number is configured to be 8. mapping complex modulation symbols to L number of layers; sequentially applying a unit matrix U, a diagonal matrix D, and a precoding matrix W to the complex modulation symbols mapped to the L number of layers; and mapping symbols mapped to a plurality of demodulation reference signal, DMRS, ports by applying the W and the D to a resource and transmitting the symbols, wherein the W corresponds to one of M number of precoder set, characterized in that: the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the M*L when the L is less than a predetermined number, the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the L when the L is greater than or equal to the predetermined number, wherein the M number is 2 or 4, and, wherein the predetermined number is configured to be 8. the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the M*L when the L is less than a predetermined number, the plurality of DMRS ports are configured to a number of DMRS ports corresponding to the L when the L is greater than or equal to the predetermined number, wherein the M number is 2 or 4, and, wherein the predetermined number is configured to be 8.
A camera assembly having a camera dome, a camera housing, and a plurality of camera heads arranged inside the housing and the dome, each camera head being arranged in a camera support which is movable around a center of the camera assembly, wherein: - each camera support has a first, inner, follower portion configured to engage a first, inner, guide portion of the camera housing, and a second, outer, follower portion configured to engage a second, outer, guide portion of the camera housing, and a camera head fixture connecting the first follower portion with the second follower portion, - each follower portion (112, 114) is arranged to slide in the corresponding guide portion (118, 120), and characterized in that the first follower portion has an extension (d) in a direction along the first guide portion, on both sides of a camera support centerline. - each camera support has a first, inner, follower portion configured to engage a first, inner, guide portion of the camera housing, and a second, outer, follower portion configured to engage a second, outer, guide portion of the camera housing, and a camera head fixture connecting the first follower portion with the second follower portion, - each follower portion (112, 114) is arranged to slide in the corresponding guide portion (118, 120), and
Method for manufacturing a negative ophthalmic lens comprising a central portion and a peripheral portion, characterized in that it comprises the following steps: - forming the central portion by forming voxels of a first material having a first refractive index, the central portion having a zone at its periphery; - forming the peripheral portion from said zone and contiguous to the perimeter of said zone, by forming voxels of at least one second material having a second refractive index, the second refractive index being strictly higher than the first refractive index. - forming the central portion by forming voxels of a first material having a first refractive index, the central portion having a zone at its periphery; - forming the peripheral portion from said zone and contiguous to the perimeter of said zone, by forming voxels of at least one second material having a second refractive index, the second refractive index being strictly higher than the first refractive index.
A three-dimensional 3D memory device (300; 400), comprising: a first semiconductor structure (302; 402) comprising a peripheral circuit (312; 442), an array of static random-access memory SRAM cells (314; 444), a first bonding layer (324; 432) comprising a plurality of first bonding contacts (326; 434); a second semiconductor structure (304; 404) comprising a substrate (348; 408; 608), a memory stack (333; 410) having an array of 3D NAND memory strings (338; 416) extending vertically through the memory stack (333; 410), and a second bonding layer (328; 428) comprising a plurality of second bonding contacts (330; 430); and a bonding interface (306; 406) between the first bonding layer (324; 434) and the second bonding layer and vertically between the first semiconductor structure (302; 402) and the second semiconductor structure (304; 404), wherein the first bonding contacts (326; 434) are in contact with the second bonding contacts (330; 430) at the bonding interface (306; 406); characterized in that the second semiconductor structure (304; 404) is formed such that the memory stack (333; 410) having the array of 3D NAND memory strings (338; 416) is arranged vertically between the second bonding layer (328; 428) and the substrate (348; 408; 608) of the second semiconductor structure (304; 404), wherein the peripheral circuit (312; 442) and the array of SRAM cells (314; 444) are stacked one over another. a first semiconductor structure (302; 402) comprising a peripheral circuit (312; 442), an array of static random-access memory SRAM cells (314; 444), a first bonding layer (324; 432) comprising a plurality of first bonding contacts (326; 434); a second semiconductor structure (304; 404) comprising a substrate (348; 408; 608), a memory stack (333; 410) having an array of 3D NAND memory strings (338; 416) extending vertically through the memory stack (333; 410), and a second bonding layer (328; 428) comprising a plurality of second bonding contacts (330; 430); and a bonding interface (306; 406) between the first bonding layer (324; 434) and the second bonding layer and vertically between the first semiconductor structure (302; 402) and the second semiconductor structure (304; 404), wherein the first bonding contacts (326; 434) are in contact with the second bonding contacts (330; 430) at the bonding interface (306; 406); characterized in that the second semiconductor structure (304; 404) is formed such that the memory stack (333; 410) having the array of 3D NAND memory strings (338; 416) is arranged vertically between the second bonding layer (328; 428) and the substrate (348; 408; 608) of the second semiconductor structure (304; 404), wherein the peripheral circuit (312; 442) and the array of SRAM cells (314; 444) are stacked one over another.