mhurhangee/ep-ind-claims huggingface dataset:
A holding and indexing device for integration in a setting device of timepieces, in particular of wristwatches, wherein the device comprises a bushing fixedly attached in an opening of the casing of the timepiece in which the device is to be integrated, a shaft mounted within the bushing so as to be both axially displaceable and rotatable, a transmission element (7, 8), which is attached to the end of the shaft directed into the interior of the timepiece and which allows the drive of a timepiece part located in the interior of the timepiece, and at least one resilient element (4, 10), which exerts a preload force acting in the axial direction of the shaft, characterised in that the device comprises an indexing ring, which is mounted on said shaft in an axially sliding manner and has an indexing toothing (6.1), and said transmission element (7, 8) comprises, on the side face thereof directed towards the indexing ring, a side toothing (7.1, 8.1) engaged with said indexing toothing (6.1) due to the effect of the preload force of the resilient element (4, 10), wherein, in at least one direction of rotation of the shaft, an application of a force of a predefined magnitude onto the indexing ring causes a disengagement between the indexing toothing (6.1) and the side toothing (7.1, 8.1) and thus allows a position indexing of said timepiece part.
An elevator brake assembly comprising: an asymmetrical brake; and a brake activating device operably coupled to the asymmetrical brake, the brake activating device comprising a first activation element and a second activation element, wherein the first activation element comprises a first coil and the second activation element comprises a second coil; wherein the asymmetrical brake comprises at least three brake segments (34,36,38); and the first activation element is configured to activate one of the at least three brake segments, and the second activation element is configured to independently activate the remaining of the at least three brake segments (34,36) to selectively apply different brake torques. an asymmetrical brake; and a brake activating device operably coupled to the asymmetrical brake, the brake activating device comprising a first activation element and a second activation element, wherein the first activation element comprises a first coil and the second activation element comprises a second coil; wherein the asymmetrical brake comprises at least three brake segments (34,36,38); and the first activation element is configured to activate one of the at least three brake segments, and the second activation element is configured to independently activate the remaining of the at least three brake segments (34,36) to selectively apply different brake torques.
A micromechanical particle manipulation device, formed on a surface of a fabrication substrate, comprising: - a microfabricated, movable member formed on the substrate, and having a first diverting surface, wherein the movable member moves from a first position to a second position in response to a force applied to the movable member, wherein the motion is substantially in a plane parallel to the surface of the substrate; - an sample inlet channel formed in the substrate and through which a fluid flows, the fluid including at least one target particle and non-target material, wherein the flow in the sample inlet channel is substantially parallel to the surface; - a plurality of output channels into which the microfabricated member diverts the fluid, and wherein the flow in at least one of the output channels is not parallel to the plane, and wherein at least one output channel is located directly below or above at least a portion of the microfabricated member over at least a portion of its motion, wherein the plurality of output channels comprises a sort channel and a waste channel, wherein flow in the sort channel is substantially antiparallel to flow in the sample inlet channel and wherein flow in the waste channel is substantially orthogonal to flow in the sample inlet channel and the sort channel - a microfabricated, movable member formed on the substrate, and having a first diverting surface, wherein the movable member moves from a first position to a second position in response to a force applied to the movable member, wherein the motion is substantially in a plane parallel to the surface of the substrate; - an sample inlet channel formed in the substrate and through which a fluid flows, the fluid including at least one target particle and non-target material, wherein the flow in the sample inlet channel is substantially parallel to the surface; - a plurality of output channels into which the microfabricated member diverts the fluid, and wherein the flow in at least one of the output channels is not parallel to the plane, and wherein at least one output channel is located directly below or above at least a portion of the microfabricated member over at least a portion of its motion,
Two-seater go-kart comprising a passenger seat and a driver's seat and equipped with a pedal system associated with the driver's seat, comprising an accelerator pedal and a brake pedal, characterised in that said brake pedal has or can accommodate a removable extension, running substantially parallel to said brake pedal, towards the passenger seat, so that a person present in the passenger seat can act on said brake pedal and in that said removable extension is mounted movably on said brake pedal between a position integrated with said brake pedal and a position deployed relative to said brake pedal.
A therapeutically effective amount of an alpha adrenergic receptor agonist or a pharmaceutically acceptable salt thereof for use in treating purpura in a subject, wherein purpura is selected from solar purpura, actinic purpura, senile purpura, Bateman's purpura, laser-induced purpura, purpura caused by physical trauma, purpura caused by physical trauma to the skin, cutaneous vasculature, and/or surrounding tissues, purpura caused by a medical procedure, purpura caused by a surgical procedure, and combinations thereof.
Segmental lining in the form of a tubular inner shell for a tunnel or shaft, which comprises tube sections arranged one after another in the longitudinal direction, each formed by a segment ring and aligned with one another by their annular end surfaces in an annular joint, wherein each segment ring comprises segments arranged successively in the circumferential direction, which form a butt joint in each case between two of their end faces, and a deformable flexible element (6a, 6b, 6c, 6d) is arrangedin at least one butt joint between two segments, characterised in that at least one of the segments in conjunction with the flexible element (6a, 6b, 6c, 6d) forms a common prefabricated element which is formed from a steel reinforcing mesh encased in concrete to which the flexible element (6a, 6b, 6c, 6d) is connected in frictionally locking manner, while the outer cross-sectional contour of the flexible element (6a, 6b, 6c, 6d) parallel to the butt joint matches the outer contours of the end faces,as a result of which the flexible element(6a, 6b, 6c, 6d) completely covers at least one of the two end faces, the flexible element (6a, 6b, 6c, 6d) comprising in each case, towards the annular surfaces of the segment ring, a recess (15a, 15b, 15c, 15d) for a seal, the recess (15a, 15b, 15c, 15d) extending between the two end faces and forming essentially half a circular surfacein cross-section.
A method of determining operation characteristics of a screw compressor drive comprising a screw compressor driven with a frequency converter, wherein the method comprises pressurising a pressure vessel of the screw compressor with a variable rotational speed of the screw compressor, the rotational speed of the screw compressor having a speed profile in which the rotational speed is changed stepwise such that between stepwise changes the rotational speed of the screw compressor is kept substantially constant for a time period, repeating the speed profile until the pressure of the pressure vessel reaches a set pressure value, determining pressure of the pressure vessel, power consumption of the screw compressor drive and mass flow rate during the pressurising when the rotational speed of the screw compressor is kept substantially constant, calculating energy efficiency of the screw compressor drive as a function of pressure of the pressure vessel and rotational speed of the screw compressor on the basis of the determined pressure of the pressure vessel and power consumption of the screw compressor drive.
A signal sending method, comprising: mapping, by a transmit end, a first sequence { p i a 0, p i a 1,...,p i a P- 1} into an i th subcarrier group in M subcarrier groups, wherein a length of the first sequence is P; the M subcarrier groups are in a same time cell; the i th subcarrier group comprises K consecutive subcarriers that are evenly distributed; M≥2, P≥2, K≥2, P≤K, M, P, and K are all positive integers, and i=1, 2,..., M; there are at least two consecutively numbered subcarrier groups in the M subcarrier groups: an s th subcarrier group and an (s+1) th subcarrier group; s is a positive integer; a minimum interval between a center frequency of any subcarrier in the s th subcarrier group and a center frequency of any subcarrier in the (s+1) th subcarrier group is greater than one subcarrier; and a second sequence { p i} corresponding to the M subcarrier groups meets the following requirement: A sequence { x i} is a Barker sequence, wherein x 1 = p s +1, x 2 = p s +2,..., x M-s = p M,x M-s +1 = p 1, x M-s +2 = p 2,...,x M = p s; generating, by the transmit end, a sending signal based on signals on subcarriers in the i th subcarrier group; and sending, by the transmit end, the sending signal. mapping, by a transmit end, a first sequence { p i a 0, p i a 1,...,p i a P- 1} into an i th subcarrier group in M subcarrier groups, wherein a length of the first sequence is P; the M subcarrier groups are in a same time cell; the i th subcarrier group comprises K consecutive subcarriers that are evenly distributed; M≥2, P≥2, K≥2, P≤K, M, P, and K are all positive integers, and i=1, 2,..., M; there are at least two consecutively numbered subcarrier groups in the M subcarrier groups: an s th subcarrier group and an (s+1) th subcarrier group; s is a positive integer; a minimum interval between a center frequency of any subcarrier in the s th subcarrier group and a center frequency of any subcarrier in the (s+1) th subcarrier group is greater than one subcarrier; and a second sequence { p i} corresponding to the M subcarrier groups meets the following requirement: A sequence { x i} is a Barker sequence, wherein x 1 = p s +1, x 2 = p s +2,..., x M-s = p M,x M-s +1 = p 1, x M-s +2 = p 2,...,x M = p s; generating, by the transmit end, a sending signal based on signals on subcarriers in the i th subcarrier group; and sending, by the transmit end, the sending signal.
A robot control method applicable to a mobile terminal, wherein the mobile terminal establishes connection with a robot via a local area network by scanning a two-dimensional code of the robot, wherein the method comprises following steps of: acquiring operation instruction information from a user on an operation interface, wherein the operation instruction information comprises a control parameter and an action execution parameter; setting the control parameter and the action execution parameter; generating first control instruction information according to a set control parameter and a set action execution parameter; and sending the first control instruction information to the robot via a wireless communication network, such that the robot executes a corresponding action according to the first control instruction information; characterized in that the method further comprises following steps of: acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; wherein the sending the working information via a wide area network to a remote monitoring center comprises: interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent. acquiring operation instruction information from a user on an operation interface, wherein the operation instruction information comprises a control parameter and an action execution parameter; setting the control parameter and the action execution parameter; generating first control instruction information according to a set control parameter and a set action execution parameter; and sending the first control instruction information to the robot via a wireless communication network, such that the robot executes a corresponding action according to the first control instruction information; characterized in that the method further comprises following steps of: acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; wherein the sending the working information via a wide area network to a remote monitoring center comprises: interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent. interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent.
An integrated repair system for servicing a component within a nacelle of a wind turbine uptower, the wind turbine having a rotor with at least one rotor blade mounted to a rotatable hub, the rotor operably coupled to a gearbox via a rotor shaft, the repair system comprising: at least one mounting location integrally formed into a bedplate support frame of the wind turbine; a frame assembly comprising at least one support leg secured to the mounting location and defining a passageway that receives the rotor shaft therethrough; a pin carrier tray having a support surface extending between a first tray end and a second tray end, the first tray end being removably coupled to the at least one support leg; a screw feed assembly operably coupled to the second tray end and oriented to move the at least one fastener in an axial direction so as to couple or decouple the frame assembly and the bedplate support frame; at least one clamp element positioned inward of the frame assembly so as to receive the rotor shaft therein and provide a clamping force thereto; and at least one jack element engaged with the frame assembly and the at least one clamp element, the at least one jack element being operable with the frame assembly to provide support to and movement of the rotor shaft in at least one direction, wherein, when the gearbox is moved in the nacelle during a repair procedure, the repair system supports the rotor shaft uptower such that the rotor remains installed onto the rotor shaft. at least one mounting location integrally formed into a bedplate support frame of the wind turbine; a frame assembly comprising at least one support leg secured to the mounting location and defining a passageway that receives the rotor shaft therethrough; a pin carrier tray having a support surface extending between a first tray end and a second tray end, the first tray end being removably coupled to the at least one support leg; a screw feed assembly operably coupled to the second tray end and oriented to move the at least one fastener in an axial direction so as to couple or decouple the frame assembly and the bedplate support frame; at least one clamp element positioned inward of the frame assembly so as to receive the rotor shaft therein and provide a clamping force thereto; and at least one jack element engaged with the frame assembly and the at least one clamp element, the at least one jack element being operable with the frame assembly to provide support to and movement of the rotor shaft in at least one direction, wherein, when the gearbox is moved in the nacelle during a repair procedure, the repair system supports the rotor shaft uptower such that the rotor remains installed onto the rotor shaft.
A method for on-site connecting a first end and a second end of similar shapes and made of thermoplastic material, in particular of thermoplastic polyurethane, of an open seal or respectively a first seal and a second seal on a surface to be sealed, as it comprises the steps of: - bringing and mounting on site a connection device and positioning it on the surface to be sealed, beneath the first end and the second end to be connected, - injecting under heat between the first end and the second end a thermoplastic material identical to that of the first end and the second end, by means of the previously mounted connection device, - cooling or allowing the thermoplastic material injected between the first end and the second end to cool, - keeping the injected thermoplastic material under pressure during the cooling step, - dismounting the connection device, in which the step of mounting the connection device comprises the steps of: - placing a first portion of a base of the connection device on the surface to be sealed, - positioning the first end and the second end against the first portion of the base, - fixing a second portion of the base against the first portion, so that the first end and the second end are positioned in a cavity formed by the assembly of the first portion and the second portion, - fixing an injection head of the connection device on the base. - bringing and mounting on site a connection device and positioning it on the surface to be sealed, beneath the first end and the second end to be connected, - injecting under heat between the first end and the second end a thermoplastic material identical to that of the first end and the second end, by means of the previously mounted connection device, - cooling or allowing the thermoplastic material injected between the first end and the second end to cool, - keeping the injected thermoplastic material under pressure during the cooling step, - dismounting the connection device, - placing a first portion of a base of the connection device on the surface to be sealed, - positioning the first end and the second end against the first portion of the base, - fixing a second portion of the base against the first portion, so that the first end and the second end are positioned in a cavity formed by the assembly of the first portion and the second portion, - fixing an injection head of the connection device on the base.
Railway platform installation device for a railway platform, in particular, for low-floor vehicles and/or trams and/or buses, with at least one railway platform slab and an installation space covered by the railway platform slab arranged underneath, wherein the railway platform installation device comprises modularly constructed installation bodies that can be connected to one another with a bottom surface and two lateral surfaces (34, 36), which have a U-shaped cross section as prefabricated modules and form a trough or a trough-like structure, in which the installation space is formed, characterized in that the railway platform slabs designed to form the surface of the railway platform are also constructed as prefabricated modules, wherein one side of the railway platform slabs is facing the track region and forms a railway platform edge and wherein the railway platform slabs are on a top edge of the lateral surfaces (34, 36) of the installation body and cover the installation body.
A method, on a first peer device, for obtaining content stored on a second peer device, the method comprising: connecting to a first mesh network that does not include the second peer device; transmitting a request for the content to a third peer device via the first mesh network; in response to the request, receiving, from the third peer device, the identity of the second peer device and the identity of a file containing the content; connecting to a second mesh network that includes the second peer device; and receiving a transfer of the file from the second peer device via the second mesh network. connecting to a first mesh network that does not include the second peer device; transmitting a request for the content to a third peer device via the first mesh network; in response to the request, receiving, from the third peer device, the identity of the second peer device and the identity of a file containing the content; connecting to a second mesh network that includes the second peer device; and receiving a transfer of the file from the second peer device via the second mesh network.