mhurhangee/ep-ind-claims huggingface dataset:
- A propulsion device for a vertical take-off and landing rotary-wing aerodyne, by means of coaxial contra-rotating propellers that can move in yaw, roll and pitch, the propulsion device including: - a hollow frame having a longitudinal axis which, in use, is coaxial with the yaw axis, - an upper propeller and a lower propeller each having a blade carrier ring to the periphery of which fixed pitch blades are secured, the propellers (2,3) being spaced one above the other along the yaw axis, each propeller defining a propeller disc and being adapted to be driven in rotation about an axis of rotation that is perpendicular to the propeller disc and to be tilted about the roll axis and the pitch axis, - drive means for driving in rotation each propeller (2,3) about its axis of rotation, and - tilt control means for tilting the propellers about the roll axis and the pitch axis, - the blade carrier ring of each propeller being connected to the drive means by a pin spherical joint connection, the centre of which is the intersection of the respective propeller disc and the yaw axis and the axis of which is the axis of rotation of the propeller, the propulsion device being characterised in that the drive means include motor means including, for each propeller, a torque motor, the rotor of which is secured to a cage on which is secured the spherical joint on which the blade carrier ring of the respective propeller pivots, the stator of the torque motor being secured to the frame. - a hollow frame having a longitudinal axis which, in use, is coaxial with the yaw axis, - an upper propeller and a lower propeller each having a blade carrier ring to the periphery of which fixed pitch blades are secured, the propellers (2,3) being spaced one above the other along the yaw axis, each propeller defining a propeller disc and being adapted to be driven in rotation about an axis of rotation that is perpendicular to the propeller disc and to be tilted about the roll axis and the pitch axis, - drive means for driving in rotation each propeller (2,3) about its axis of rotation, and - tilt control means for tilting the propellers about the roll axis and the pitch axis, - the blade carrier ring of each propeller being connected to the drive means by a pin spherical joint connection, the centre of which is the intersection of the respective propeller disc and the yaw axis and the axis of which is the axis of rotation of the propeller,
A dispenser for dispensing flexible sheets comprising: A. a pouch composed of at least one flexible multilayer film, the pouch comprising (i) a front wall joined to a rear wall along a top seal and a bottom seal; (ii) a first sidewall and an opposing second sidewall, each sidewall joined to the front wall and the rear wall with a first side seal and a second side seal, respectively; (iii) a flap above the pouch and joined to the pouch along the top seal; B. a roll of continuous flexible sheets in an interior of the pouch; C. a slot along the front wall through which the flexible sheets are removed from the pouch. A. a pouch composed of at least one flexible multilayer film, the pouch comprising (i) a front wall joined to a rear wall along a top seal and a bottom seal; (ii) a first sidewall and an opposing second sidewall, each sidewall joined to the front wall and the rear wall with a first side seal and a second side seal, respectively; (iii) a flap above the pouch and joined to the pouch along the top seal; (i) a front wall joined to a rear wall along a top seal and a bottom seal; (ii) a first sidewall and an opposing second sidewall, each sidewall joined to the front wall and the rear wall with a first side seal and a second side seal, respectively; (iii) a flap above the pouch and joined to the pouch along the top seal; B. a roll of continuous flexible sheets in an interior of the pouch; C. a slot along the front wall through which the flexible sheets are removed from the pouch.
Woven fabric, particularly a warp faced fabric, such as a denim fabric, comprising: a front and a back, a plurality of picks extending in weft direction and a plurality of warp yarns (4, 5) extending in warp direction and bypassing picks at their front side to define over portions (43, 53) and bypassing picks at their back side to define under portions (41, 51), wherein each under portion extends on the back side of the picks between two adjacent over portions, wherein said plurality of warp yarns (4, 5) comprise frontside warp yarns and backside warp yarns, said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns, wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between the over portions between which said loose loop under portion extends, wherein said frontside warp yarns and said backside warp yarns are selected and/or woven such that at least 25% of the frontside warp yarns are laterally in contact with each adjacently neighboring frontside warp yarn such that the front side warp yarns form a closely woven frontside warp yarn arrangement and structurally isolate the backside warp yarns from the front of the fabric. a front and a back, a plurality of picks extending in weft direction and a plurality of warp yarns (4, 5) extending in warp direction and bypassing picks at their front side to define over portions (43, 53) and bypassing picks at their back side to define under portions (41, 51), wherein each under portion extends on the back side of the picks between two adjacent over portions, wherein said plurality of warp yarns (4, 5) comprise frontside warp yarns and backside warp yarns, said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns, wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between the over portions between which said loose loop under portion extends, wherein said frontside warp yarns and said backside warp yarns are selected and/or woven such that at least 25% of the frontside warp yarns are laterally in contact with each adjacently neighboring frontside warp yarn such that the front side warp yarns form a closely woven frontside warp yarn arrangement and structurally isolate the backside warp yarns from the front of the fabric.
A method, performed by a user equipment, UE, for wireless communication, the method comprising: receiving a message from a visited network, the message comprising an attach reject message, a tracking area update, TAU, reject message, or a service reject message; determining that the visited network is in a first temporary list of forbidden networks, wherein the first temporary list resides in UE memory, outside a subscriber identity module, SIM; determining a value of a counter associated with the visited network in response to the visited network being in the first list; incrementing the counter associated with the visited network in response to the visited network being in the first list; in response to the value of the counter being equal to a maximum counter value: deleting the visited network from the first list; and adding the visited network to a second list of forbidden networks, wherein the second list resides in the SIM: and deleting all entries in the first list in response to the SIM being removed from the UE or the UE being powered off. receiving a message from a visited network, the message comprising an attach reject message, a tracking area update, TAU, reject message, or a service reject message; determining that the visited network is in a first temporary list of forbidden networks, wherein the first temporary list resides in UE memory, outside a subscriber identity module, SIM; determining a value of a counter associated with the visited network in response to the visited network being in the first list; incrementing the counter associated with the visited network in response to the visited network being in the first list; in response to the value of the counter being equal to a maximum counter value: deleting the visited network from the first list; and adding the visited network to a second list of forbidden networks, wherein the second list resides in the SIM: and deleting all entries in the first list in response to the SIM being removed from the UE or the UE being powered off. deleting the visited network from the first list; and adding the visited network to a second list of forbidden networks, wherein the second list resides in the SIM: and deleting all entries in the first list in response to the SIM being removed from the UE or the UE being powered off.
An apparatus, comprising: a tire building drum; an application conveyor (106a, 106b) that is configured to apply a breaker (114a, 114b) to the tire building drum; a machine vision system that is configured for generating a three dimensional image of the tire building drum as the breaker is applied to the tire building drum; a breaker guiding system (116a, 116b) that is configured for determining a lateral position of the breaker (114a, 114b) on the application conveyor (106a, 106b); and at least one processor circuit with a memory comprising instructions, that when executed by the processor circuit, causes the at least one processor circuit to at least: identify a center of the breaker (114a, 114b) in the three dimensional image; identify a difference between the center of the breaker and a target position of the tire building drum in the three dimensional image; and apply the difference as a breaker position feedback error to the breaker guiding system (116a, 116b) that determines a position of a subsequent breaker transferred onto the application conveyor (106a, 106b). a tire building drum; an application conveyor (106a, 106b) that is configured to apply a breaker (114a, 114b) to the tire building drum; a machine vision system that is configured for generating a three dimensional image of the tire building drum as the breaker is applied to the tire building drum; a breaker guiding system (116a, 116b) that is configured for determining a lateral position of the breaker (114a, 114b) on the application conveyor (106a, 106b); and at least one processor circuit with a memory comprising instructions, that when executed by the processor circuit, causes the at least one processor circuit to at least: identify a center of the breaker (114a, 114b) in the three dimensional image; identify a difference between the center of the breaker and a target position of the tire building drum in the three dimensional image; and apply the difference as a breaker position feedback error to the breaker guiding system (116a, 116b) that determines a position of a subsequent breaker transferred onto the application conveyor (106a, 106b). identify a center of the breaker (114a, 114b) in the three dimensional image; identify a difference between the center of the breaker and a target position of the tire building drum in the three dimensional image; and apply the difference as a breaker position feedback error to the breaker guiding system (116a, 116b) that determines a position of a subsequent breaker transferred onto the application conveyor (106a, 106b).
A defective product removing device for a box making machine that removes a sheet material as a defective product from a manufacturing line for manufacturing a box by processing the sheet material, the defective product removing device comprising: a quality determining device for determining the quality of the sheet material based on an inspection result of a detection device configured to detect the quality of the sheet material conveyed in the manufacturing line; a defective product removing portion for removing the sheet material of which a surface is subjected to creasing processing and slotting and which is not folded yet from the manufacturing line; a sorting device for operating the defective product removing portion with respect to the sheet material determined as a defective product by the quality determining device;and a position sensor, as the detection device, for detecting a conveying position of the sheet material, characterized in that the quality determining device is configured to perform a determination of a defective slotting position of the sheet material based on whether a processing position set by the rotation phases of a slitter knife and a slotter knife are not present at an appropriate position with respect to the conveying position of the sheet material. a quality determining device for determining the quality of the sheet material based on an inspection result of a detection device configured to detect the quality of the sheet material conveyed in the manufacturing line; a defective product removing portion for removing the sheet material of which a surface is subjected to creasing processing and slotting and which is not folded yet from the manufacturing line; a sorting device for operating the defective product removing portion with respect to the sheet material determined as a defective product by the quality determining device;and a position sensor, as the detection device, for detecting a conveying position of the sheet material, characterized in that the quality determining device is configured to perform a determination of a defective slotting position of the sheet material based on whether a processing position set by the rotation phases of a slitter knife and a slotter knife are not present at an appropriate position with respect to the conveying position of the sheet material.
A projectile with a nominal calibre, for use in a rifled barrel, the projectile comprising: an elongate metal core with a hardness of greater than 100HV, a ceramic tip with a Vickers Hardness greater than 550HV, said ceramic tip abutted with one end of the elongate metal core, wherein a deformable jacket or deposited coating, surrounds the elongate metal core and ceramic tip, wherein the ceramic tip is in the range of from 5% to 25% of the fill volume of the inner cavity in projectile, such that said jacket or coating defines the nominal calibre of said projectile. an elongate metal core with a hardness of greater than 100HV, a ceramic tip with a Vickers Hardness greater than 550HV, said ceramic tip abutted with one end of the elongate metal core, wherein a deformable jacket or deposited coating, surrounds the elongate metal core and ceramic tip, wherein the ceramic tip is in the range of from 5% to 25% of the fill volume of the inner cavity in projectile, such that said jacket or coating defines the nominal calibre of said projectile.
Conveyor system for transporting material, comprising a first conveyor device and a first drive device for driving the first conveyor device, a second conveyor device downstream of the first conveyor device in the transport direction of the material and a second drive device for driving the second conveyor device, wherein the first drive device is configured such that it can be operated as a generator, in particular as an electrodynamic brake for braking the first conveyor device, wherein the conveyor system has a control/regulating device for controlling/regulating supply of power from the first drive device to the second drive device, the control/regulating device being connected to the first and second drive device (14, 18), the first drive device being connected to the second drive device, in such a way that electrical power generated by the first drive device can be supplied to the second drive device, characterised in that the control/regulating device is configured in such a way that it detects an interruption in the power supply and thereupon switches the first drive device from motor operation to generator operation as an electrodynamic brake. a first conveyor device and a first drive device for driving the first conveyor device, a second conveyor device downstream of the first conveyor device in the transport direction of the material and a second drive device for driving the second conveyor device, wherein the first drive device is configured such that it can be operated as a generator, in particular as an electrodynamic brake for braking the first conveyor device, wherein the conveyor system has a control/regulating device for controlling/regulating supply of power from the first drive device to the second drive device, the control/regulating device being connected to the first and second drive device (14, 18), the first drive device being connected to the second drive device, in such a way that electrical power generated by the first drive device can be supplied to the second drive device, characterised in that the control/regulating device is configured in such a way that it detects an interruption in the power supply and thereupon switches the first drive device from motor operation to generator operation as an electrodynamic brake.
A method of determining a correspondence between frames of a set of medical image data, the set of medical image data comprising at least one frame acquired without contrast medium and at least one frame acquired with contrast medium, the method comprising: receiving, at a first neural network (402, 502), first data representing a first image frame (408, 514) acquired without contrast medium; outputting, from the first neural network (402, 502), a first probability distribution map (410, 516) relating to the position of the feature in the first image frame (408, 514); concatenating the first probability distribution map (410, 516) with the first data and second data representing a second image frame (412, 518) acquired with contrast medium to generate a three-channel image dataset; receiving the three-channel image dataset at a second neural network (406, 506); and outputting, from the second neural network (406, 506), a second probability distribution map relating to a position of a feature of a medical device in the second image frame (412, 518). receiving, at a first neural network (402, 502), first data representing a first image frame (408, 514) acquired without contrast medium; outputting, from the first neural network (402, 502), a first probability distribution map (410, 516) relating to the position of the feature in the first image frame (408, 514); concatenating the first probability distribution map (410, 516) with the first data and second data representing a second image frame (412, 518) acquired with contrast medium to generate a three-channel image dataset; receiving the three-channel image dataset at a second neural network (406, 506); and outputting, from the second neural network (406, 506), a second probability distribution map relating to a position of a feature of a medical device in the second image frame (412, 518).
A method for producing a nanoporous metallic and/or metal oxide coating on a substrate under ambient conditions, said method comprising: - providing a metallic target and a substrate near each other; - focussing a laser beam on the metallic target surface while supplying an assist gas to the interaction zone of the laser beam and the target surface so as to generate a plasma plume that leads to the formation of metallic and/or metal oxide species, so that said species are ejected from said target surface towards the same side of the target surface on which the laser beam incides, and deposited on the substrate; and wherein ambient conditions mean that the process is not carried out under vacuum or controlled atmosphere in a reaction chamber. - providing a metallic target and a substrate near each other; - focussing a laser beam on the metallic target surface while supplying an assist gas to the interaction zone of the laser beam and the target surface so as to generate a plasma plume that leads to the formation of metallic and/or metal oxide species, so that said species are ejected from said target surface towards the same side of the target surface on which the laser beam incides, and deposited on the substrate; and wherein ambient conditions mean that the process is not carried out under vacuum or controlled atmosphere in a reaction chamber.
A method of determining a vibration pattern in a crop processing section of an agricultural harvester, the method comprising: - bringing the crop processing section into a predetermined pseudo-operational configuration wherein no crop is harvested or processed, - when in the predetermined pseudo-operational configuration, using a plurality of vibration sensors to establish a reference vibration pattern, - storing the established reference vibration pattern in a memory, - bringing the crop processing section into the predetermined pseudo-operational configuration again, - when in the predetermined pseudo-operational configuration, using the plurality of vibration sensors to establish a current vibration pattern, - comparing the established current vibration pattern to the stored reference vibration pattern, and - based on the comparison, providing an output signal representative of a change of vibration pattern of the crop processing section. - bringing the crop processing section into a predetermined pseudo-operational configuration wherein no crop is harvested or processed, - when in the predetermined pseudo-operational configuration, using a plurality of vibration sensors to establish a reference vibration pattern, - storing the established reference vibration pattern in a memory, - bringing the crop processing section into the predetermined pseudo-operational configuration again, - when in the predetermined pseudo-operational configuration, using the plurality of vibration sensors to establish a current vibration pattern, - comparing the established current vibration pattern to the stored reference vibration pattern, and - based on the comparison, providing an output signal representative of a change of vibration pattern of the crop processing section.
An apparatus for attestation of data sanitization comprising an interface to communicate with a host device and a controller configured to perform a data sanitization process including: receive a data sanitization command from the host device via the interface directing the controller to sanitize specified data stored on a memory device of a data storage device; direct the memory device to sanitize the specified data by securely erasing the specified data; generate an attestation confirming that the specified data was successfully sanitized by processing a first storage encryption key to produce a first fingerprint, directing the memory device to obliterate the first storage encryption key, generating a second storage encryption key to encrypt future data, and processing the second storage encryption key to produce a second fingerprint; sign the attestation using an authentication key associated with the apparatus to create a signed attestation; and provide the signed attestation including the first fingerprint and the second fingerprint to the host device. receive a data sanitization command from the host device via the interface directing the controller to sanitize specified data stored on a memory device of a data storage device; direct the memory device to sanitize the specified data by securely erasing the specified data; generate an attestation confirming that the specified data was successfully sanitized by processing a first storage encryption key to produce a first fingerprint, directing the memory device to obliterate the first storage encryption key, generating a second storage encryption key to encrypt future data, and processing the second storage encryption key to produce a second fingerprint; sign the attestation using an authentication key associated with the apparatus to create a signed attestation; and provide the signed attestation including the first fingerprint and the second fingerprint to the host device.