mhurhangee/ep-ind-claims huggingface dataset:
An ultra-stable frequency reference generating system comprising: a cavity-stabilized reference laser comprising a laser source locked to a stabilized cavity to generate a pre-stabilized laser output; further comprising a wavelength divider to half the wavelength of the pre-stabilized laser output to form a wavelength halved pre-stabilized laser output, a Rubidium cell configured to be interrogated by the wavelength halved pre-stabilized laser output to cause at least a two-photon Rubidium transition; a detector to detect fluorescence resulting from spontaneous decay of the Rubidium transition, wherein the detector is configured to provide a detector output at a wavelength of the fluorescence to lock the cavity-stabilized reference laser to generate a stabilized laser output; a frequency comb stabilizer locked to the stabilized laser output and configured to generate a super-continuum of optical wavelengths; and means configured to generate the ultra-stable frequency reference from the super-continuum of optical wavelengths. a cavity-stabilized reference laser comprising a laser source locked to a stabilized cavity to generate a pre-stabilized laser output; further comprising a wavelength divider to half the wavelength of the pre-stabilized laser output to form a wavelength halved pre-stabilized laser output, a Rubidium cell configured to be interrogated by the wavelength halved pre-stabilized laser output to cause at least a two-photon Rubidium transition; a detector to detect fluorescence resulting from spontaneous decay of the Rubidium transition, wherein the detector is configured to provide a detector output at a wavelength of the fluorescence to lock the cavity-stabilized reference laser to generate a stabilized laser output; a frequency comb stabilizer locked to the stabilized laser output and configured to generate a super-continuum of optical wavelengths; and means configured to generate the ultra-stable frequency reference from the super-continuum of optical wavelengths.
Apparatus for picking an item, the item being a garment or a length of textile, the apparatus comprising: a picking arm configured to approach the item and then withdraw; at least one adherence location on said picking arm, the adherence location for contacting the item at a contact location on an outer facing surface of the item and causing adherence of the item, at the contact location, to the adherence location, the picking arm thereby enabled to pull said item while withdrawing, the adherence location comprising a chill point to freeze liquid at said contact location, to attach said contact location by freezing. a picking arm configured to approach the item and then withdraw; at least one adherence location on said picking arm, the adherence location for contacting the item at a contact location on an outer facing surface of the item and causing adherence of the item, at the contact location, to the adherence location, the picking arm thereby enabled to pull said item while withdrawing, the adherence location comprising a chill point to freeze liquid at said contact location, to attach said contact location by freezing.
Pneumatic suspension system (1a, 1b, 1e) for a motor vehicle, having a plurality of spring bellows (23, 24) that are associated with the pneumatic springs of at least one vehicle axle, can be connected by means of connection lines (29, 30) that are each provided with a level control valve (25, 26; 83) to a main pressure line (22; 95), and can be shut off with respect to same, wherein the main pressure line (22; 95) can be connected by means of at least one associated valve (3, 6, 10, 34; 82) alternately to a compressed air source and a compressed air sink and can be shut off with respect to same, characterized in that the spring bellows (23; 24) of the pneumatic springs arranged at least on one vehicle axle or on one vehicle side can be respectively connected to the main pressure line (22; 95) in parallel with the first connection lines (29; 30) at least by means of a second connection line (31; 32) provided with a second level control valve (27; 28; 84) and can be shut off with respect to said main pressure line, in that the second level control valves (27; 28; 84) of the relevant spring bellows (23; 24) each have nozzle cross-sectional areas of the same size (NW X = NW Y) as the first level control valves (25; 26; 83), and in that a restrictor (51; 52; 101) is arranged after each of the second level control valves (27; 28; 84) in the air admission direction, the cross-sectional areas (NW D) of said restrictors being smaller than the nozzle cross-sectional area (NW Y) of the relevant second level control valve (27; 28; 84) (NW D < NW Y).
A method for resoling shoes manufactured by means of a method comprising a step for the manufacture of a midsole by co-molding a main body made of expanded EVA which has an Asker C hardness comprised between 40 and 80 or a Shore A hardness comprised between 40 and 80 on a sheet-like body made of compact EVA which has an Asker A hardness comprised between 70 and 100 or a Shore A hardness comprised between 60 and 100, a step of stable mating of said midsole to a sole at the face formed by said sheet-like body, and to an upper at the face formed by said main body, a step of resoling said shoe manufactured according to said method for the manufacture of shoes being provided which comprises a step of heating said sole until said sheet-like body reaches a temperature comprised between 65°C and 85°C, a step of separating said sheet-like body from said main body, and a step of stable application of at least one new sole to said main body.
Device for feeding fiber material to a carding machine, comprising a filling chute, a filling chute outlet, a feed channel and a fan for compressing the fiber material in the feed channel to a certain fiber batt weight, wherein the filling chute outlet has a feed roller which is driven by a frequency converter and comprises a feeding trough for dosing the fiber material from the filling chute, and an opening roller for transferring the fiber material from the feed roller to the feed channel, wherein a controller is provided, in which, for different fiber batt weights, a target volume flow of the fan and a target pressure in the feed channel are assigned to each specific fiber batt weight, and a pressure measuring device for measuring an actual pressure is provided in the feed channel, wherein, in the controller, the frequency converter of the drive of the feed roller is controlled according to a target-actual comparison of the pressure in the feed channel, while maintaining the target volume flow.
A device for supporting and attaching a construction accessory, such as a gutter hook, to a roof cover, the support device comprising a part forming a hook holder and a U-shaped clamp whereof the branches (4,5) form, with the hook holder-forming part, a single-piece assembly that can be slipped on an edge of the roof cover and fastened to this edge, characterized in that the branches (4,5) of the U of the clamp are rectilinear and parallel in cross-section, with the same length and able to resiliently and directly grip the edge of the roof cover under the action of the clamping force exerted on the branches (4,5) by the bend connecting these branches to one another after forcible engagement of this edge between the branches (4,5) of the clamp whereof the inner faces come directly into contact respectively on the corresponding upper and lower faces of the edge of the cover.
A computer-implemented method of controlling pairings between one or more upstream facing port, UFP, devices, and one or more downstream facing port, DFP, devices (408, 410, 412) on a network, each DFP device (408, 410, 412) being configured to be coupled to at least one USB device (414, 416, 418, 420), the method comprising: transmitting, by a controller device via the network, a first pairing command to a UFP device instructing the UFP device to pair with a first DFP device of a plurality of DFP devices (408, 410, 412) on the network; and transmitting, by the controller device via the network, a second pairing command to the UFP device instructing the UFP device to pair with a second DFP device of the plurality of DFP devices (408, 410, 412); wherein a USB host device is configured to be coupled to the UFP device, a first USB device is configured to be coupled to the first DFP device, and a second USB device is configured to be coupled to the second DFP device, the USB host device being configured to exchange USB information with the first USB device but not the second USB device while the UFP device is paired with the first DFP device, and, to exchange USB information with the second USB device but not the first USB device while the UFP device is paired with the second DFP device; and wherein the controller device is separate from the UFP device, the first DFP device, and the second DFP device. transmitting, by a controller device via the network, a first pairing command to a UFP device instructing the UFP device to pair with a first DFP device of a plurality of DFP devices (408, 410, 412) on the network; and transmitting, by the controller device via the network, a second pairing command to the UFP device instructing the UFP device to pair with a second DFP device of the plurality of DFP devices (408, 410, 412); wherein a USB host device is configured to be coupled to the UFP device, a first USB device is configured to be coupled to the first DFP device, and a second USB device is configured to be coupled to the second DFP device, the USB host device being configured to exchange USB information with the first USB device but not the second USB device while the UFP device is paired with the first DFP device, and, to exchange USB information with the second USB device but not the first USB device while the UFP device is paired with the second DFP device; and wherein the controller device is separate from the UFP device, the first DFP device, and the second DFP device.
Use of a compound consisting of a linear C 8 -C 24 hydrocarbon-based chain bearing at each end a nitrogen-containing functional group, other than -NH 2, for the storage of thermal energy, in which said compound is chosen from: - the bisamides of formula: R 1 R 2 N-CO- (CH 2) n -CO-NR 1 R 2 where n is an integer ranging from 8 to 24 and R 1, R 2 independently denote a hydrogen atom; a C 1 -C 10 alkyl group; a group Ra-N-RbRc where Ra is a -(CH 2) x -(NH-CH 2 -CH 2) m - chain where m is an integer ranging from 0 to 6, x is an integer ranging from 1 to 4 and Rb, Rc are each H or form together and with the nitrogen atom to which they are attached a nitrogen-containing heterocycle optionally interrupted by at least one other nitrogen atom and optionally substituted by an oxo group, - the dinitriles of formula: N≡C-(CH 2) p -C≡N where p is an integer ranging from 8 to 24, preferably from 8 to 16, - the polyamines of formula: R 3 R 4 N-(CH 2) q -NR 3 R 4 where q is an integer ranging from 8 to 24; R 3 is a propylamine, polypropylamine, alkylcarbonyl or alkylsulphonyl group optionally containing an alkoxylated unit (CH 2 -CH 2 -O) y; and R 4 is H or a propylamine, polypropylamine, alkylcarbonyl or alkylsulphonyl group optionally containing an alkoxylated unit (CH 2 -CH 2 -O) y where y is an integer ranging from 1 to 6. - the bisamides of formula: R 1 R 2 N-CO- (CH 2) n -CO-NR 1 R 2 where n is an integer ranging from 8 to 24 and R 1, R 2 independently denote a hydrogen atom; a C 1 -C 10 alkyl group; a group Ra-N-RbRc where Ra is a -(CH 2) x -(NH-CH 2 -CH 2) m - chain where m is an integer ranging from 0 to 6, x is an integer ranging from 1 to 4 and Rb, Rc are each H or form together and with the nitrogen atom to which they are attached a nitrogen-containing heterocycle optionally interrupted by at least one other nitrogen atom and optionally substituted by an oxo group, - the dinitriles of formula: N≡C-(CH 2) p -C≡N where p is an integer ranging from 8 to 24, preferably from 8 to 16, - the polyamines of formula: R 3 R 4 N-(CH 2) q -NR 3 R 4 where q is an integer ranging from 8 to 24; R 3 is a propylamine, polypropylamine, alkylcarbonyl or alkylsulphonyl group optionally containing an alkoxylated unit (CH 2 -CH 2 -O) y; and R 4 is H or a propylamine, polypropylamine, alkylcarbonyl or alkylsulphonyl group optionally containing an alkoxylated unit (CH 2 -CH 2 -O) y where y is an integer ranging from 1 to 6.
Method for preparing a sodium faujasite catalyst for use in producing acrylic acid, comprising: etching a sodium faujasite zeolite of formula (NaAlO 2)(SiO 2) x ·yH 2 O, 1.2 < x < 450, 0 < y < 16 by an etchant selected from the group consisting of a base and an organic etchant to create mesopores and macropores in the microporous framework and obtain an etched sodium faujasite zeolite; loading calcium onto the etched sodium faujasite zeolite to obtain a calcium-loaded sodium faujasite zeolite; and loading alkali metal hydroxide onto the calcium-loaded sodium faujasite zeolite to obtain the sodium faujasite catalyst. etching a sodium faujasite zeolite of formula (NaAlO 2)(SiO 2) x ·yH 2 O, 1.2 < x < 450, 0 < y < 16 by an etchant selected from the group consisting of a base and an organic etchant to create mesopores and macropores in the microporous framework and obtain an etched sodium faujasite zeolite; loading calcium onto the etched sodium faujasite zeolite to obtain a calcium-loaded sodium faujasite zeolite; and loading alkali metal hydroxide onto the calcium-loaded sodium faujasite zeolite to obtain the sodium faujasite catalyst.
A heavy-load vehicle comprising at least two partial vehicles, namely • a frontmost partial vehicle including or being connected to a tow connection device for connecting said heavy-load vehicle to a towing vehicle not being part of the heavy-load vehicle, and • a rearmost partial vehicle, said frontmost partial vehicle having connecting means, and said rearmost partial vehicle having counter-connecting means adapted and configured for cooperating with said connecting means for operatively connecting said frontmost partial vehicle and said rearmost partial vehicle to each other, one of said connecting means and said counter-connecting means including an inner telescopic member guided in a hollow outer telescopic member in a telescoping manner, wherein said hollow outer telescopic member is integrally formed by a tubular or box-shaped central part of a partial vehicle frame of one of the partial vehicles, said hollow outer telescopic member and said inner telescopic member cooperating therewith being parts of the same partial vehicle, characterized in that a first plate part of a bolt-plate coupling is mounted at the free end of the inner telescoping member of a first of two immediately consecutive partial vehicles, while a second plate part designed to cooperate with said first plate part via a bolt of said bolt-plate coupling is mounted to a facing end of a second of said two immediately consecutive partial vehicles. • a frontmost partial vehicle including or being connected to a tow connection device for connecting said heavy-load vehicle to a towing vehicle not being part of the heavy-load vehicle, and • a rearmost partial vehicle, said frontmost partial vehicle having connecting means, and said rearmost partial vehicle having counter-connecting means adapted and configured for cooperating with said connecting means for operatively connecting said frontmost partial vehicle and said rearmost partial vehicle to each other, one of said connecting means and said counter-connecting means including an inner telescopic member guided in a hollow outer telescopic member in a telescoping manner, wherein said hollow outer telescopic member is integrally formed by a tubular or box-shaped central part of a partial vehicle frame of one of the partial vehicles, said hollow outer telescopic member and said inner telescopic member cooperating therewith being parts of the same partial vehicle, said frontmost partial vehicle having connecting means, and said rearmost partial vehicle having counter-connecting means adapted and configured for cooperating with said connecting means for operatively connecting said frontmost partial vehicle and said rearmost partial vehicle to each other, one of said connecting means and said counter-connecting means including an inner telescopic member guided in a hollow outer telescopic member in a telescoping manner, wherein said hollow outer telescopic member is integrally formed by a tubular or box-shaped central part of a partial vehicle frame of one of the partial vehicles, said hollow outer telescopic member and said inner telescopic member cooperating therewith being parts of the same partial vehicle,
An agricultural harvester, characterized in that the agricultural harvester comprises: a work vehicle controller configured to output a control signal indicative of instructions to move a feeder house of the agricultural harvester based at least in part on at least one header parameter, wherein the work vehicle controller is configured to output the control signal to a network; an agricultural header controller configured to receive the control signal and to control movement of the feeder house based at least in part on the control signal to control movement of an agricultural header; and a wing controller configured to: receive the at least one header parameter from the network; and output a wing control signal indicative of instructions to move a wing based at least in part on the at least one header parameter, wherein the wing is coupled to a center section of the agricultural header. a work vehicle controller configured to output a control signal indicative of instructions to move a feeder house of the agricultural harvester based at least in part on at least one header parameter, wherein the work vehicle controller is configured to output the control signal to a network; an agricultural header controller configured to receive the control signal and to control movement of the feeder house based at least in part on the control signal to control movement of an agricultural header; and a wing controller configured to: receive the at least one header parameter from the network; and output a wing control signal indicative of instructions to move a wing based at least in part on the at least one header parameter, wherein the wing is coupled to a center section of the agricultural header. receive the at least one header parameter from the network; and output a wing control signal indicative of instructions to move a wing based at least in part on the at least one header parameter, wherein the wing is coupled to a center section of the agricultural header.
A mobile terminal, comprising: at least one user data communication block (30, 30a, 30b, 30n) and a spectrum sensing control block, wherein the user data communication block (30, 30a, 30b, 30n) is configured to transport user data, the user data communication block comprising two or more logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), wherein each of the logical sub blocks is configured to process user data on different protocol layer, and wherein the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) comprise a user data interface for transporting the user data to and from a sub block of an upper protocol layer and a sensing data interface for outputting sensing data to a spectrum sensing control block; and wherein the spectrum sensing control block is configured to request spectrum sensing data from at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), and to control, through the sensing data interface, spectrum sensing performed by the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) and to receive the sensing data from the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n). at least one user data communication block (30, 30a, 30b, 30n) and a spectrum sensing control block, wherein the user data communication block (30, 30a, 30b, 30n) is configured to transport user data, the user data communication block comprising two or more logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), wherein each of the logical sub blocks is configured to process user data on different protocol layer, and wherein the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) comprise a user data interface for transporting the user data to and from a sub block of an upper protocol layer and a sensing data interface for outputting sensing data to a spectrum sensing control block; and wherein the spectrum sensing control block is configured to request spectrum sensing data from at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), and to control, through the sensing data interface, spectrum sensing performed by the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) and to receive the sensing data from the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n).
Aircraft engine with an oil supply system, including at least one closed oil circuit, into which are integrated: an oil tank having a closing valve that is associated with the outlet opening of the oil tank in a suction line and that can be closed after engine shut-down, an oil pump (6, 11) and at least one consumer to be supplied with oil by means of a pressure line (7, 7'), characterized in that a negative pressure relief line having a shut-off valve incorporated is connected to the suction line, said negative pressure relief line, for ensuring pressure relief in the suction line, being connectable to the pressure line (7, 7') or to the ambient air after shutdown of the engine, with the closing valve closed and with the oil pump continuing running, or being permanently connected to the pressure line (7, 7') via a volume flow limiter incorporated into said negative pressure relief line, instead of the shut-off valve.
Method of processing a three dimensional video signal, the method comprising: - deriving, from the 3D video signal, a first depth map comprising first depth values and a 2D image comprising image values corresponding to the first depth map, - generating a second depth map having second depth values from the 3D video signal and/or the first depth map by a multi-dimensional filter that causes the second depth map to have spilling artifacts, whereas the first depth map, in corresponding locations, has less or no such artifacts, - determining a depth difference between the first depth map and the second depth map, a positive value of the depth difference indicating a depth in the second depth map being closer to a viewer, and - generating a third depth map by combining the first depth values and the second depth values according to a combining function in dependence of the depth difference, the combining function giving preference to the first depth values where the depth difference is positive. - deriving, from the 3D video signal, a first depth map comprising first depth values and a 2D image comprising image values corresponding to the first depth map, - generating a second depth map having second depth values from the 3D video signal and/or the first depth map by a multi-dimensional filter that causes the second depth map to have spilling artifacts, whereas the first depth map, in corresponding locations, has less or no such artifacts, - determining a depth difference between the first depth map and the second depth map, a positive value of the depth difference indicating a depth in the second depth map being closer to a viewer, and - generating a third depth map by combining the first depth values and the second depth values according to a combining function in dependence of the depth difference, the combining function giving preference to the first depth values where the depth difference is positive.