mhurhangee/ep-ind-claims huggingface dataset:
A rotating electrical machine comprising: a cylinder-shaped housing that includes a plurality of flanges installed to a casing; a stator that includes a cylinder-shaped stator core fixed to the housing through shrinkage fit or press fit; and a rotor that is arranged inside the stator so as to be rotatable, wherein, in the stator core, a plurality of steel sheets is stacked, and reinforcing portions used for suppressing deformation of the steel sheets are arranged at positions in the stator core that correspond to the flanges of the housing, and wherein the stator core is an integration-type core, a plurality of slots parallel to the axial direction of the stator core is formed in the stator core, the rotating electrical machine characterized in further comprising a segment-type coil in which a plurality of segment conductors is connected to each other and an insulating paper used for insulating between the segment conductors and the slots and the segment conductors are arranged in the slot; wherein the reinforcing portions are formed as welding portions arranged to be parallel to an axial direction of the stator core or the reinforcing portions are formed as clinching parts used for stacking and fixing the steel sheets, and wherein the stator fixed to the housing is held to be fixed inside the casing by fastening the plurality of flanges disposed in the housing to the casing. a cylinder-shaped housing that includes a plurality of flanges installed to a casing; a stator that includes a cylinder-shaped stator core fixed to the housing through shrinkage fit or press fit; and a rotor that is arranged inside the stator so as to be rotatable, wherein, in the stator core, a plurality of steel sheets is stacked, and reinforcing portions used for suppressing deformation of the steel sheets are arranged at positions in the stator core that correspond to the flanges of the housing, and wherein the stator core is an integration-type core, a plurality of slots parallel to the axial direction of the stator core is formed in the stator core, the rotating electrical machine characterized in further comprising a segment-type coil in which a plurality of segment conductors is connected to each other and an insulating paper used for insulating between the segment conductors and the slots and the segment conductors are arranged in the slot; wherein the reinforcing portions are formed as welding portions arranged to be parallel to an axial direction of the stator core or the reinforcing portions are formed as clinching parts used for stacking and fixing the steel sheets, and wherein the stator fixed to the housing is held to be fixed inside the casing by fastening the plurality of flanges disposed in the housing to the casing.
A storage system comprising: a plurality of embedded storage devices (403A, 403B, 403C), wherein each embedded storage device of the plurality of embedded storage devices comprises: a mapped solid state drive, SSD, storage portion, wherein the first mapped SSD storage portion has erase blocks mapped as addressable storage of the SSD; and a non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the mapped SSD portion and the NVRAM portion are separately addressable, and wherein the NVRAM portion is smaller than the mapped SSD portion; and a plurality of storage system controllers (401A, 401B) operatively coupled to the plurality of embedded storage devices via a bus, the plurality of storage system controllers (401A, 401B) configured to: identify and maintain a list of allocation units across multiple mapped solid state drives SSD of the storage system, wherein the allocation units are entire erase blocks or multiple erase blocks; determine that data is to be stored in the mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the NVRAM portion of a second embedded storage device of the plurality of embedded storage devices. a plurality of embedded storage devices (403A, 403B, 403C), wherein each embedded storage device of the plurality of embedded storage devices comprises: a mapped solid state drive, SSD, storage portion, wherein the first mapped SSD storage portion has erase blocks mapped as addressable storage of the SSD; and a non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the mapped SSD portion and the NVRAM portion are separately addressable, and wherein the NVRAM portion is smaller than the mapped SSD portion; and a plurality of storage system controllers (401A, 401B) operatively coupled to the plurality of embedded storage devices via a bus, the plurality of storage system controllers (401A, 401B) configured to: identify and maintain a list of allocation units across multiple mapped solid state drives SSD of the storage system, wherein the allocation units are entire erase blocks or multiple erase blocks; determine that data is to be stored in the mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the NVRAM portion of a second embedded storage device of the plurality of embedded storage devices.
A plasma generation device, comprising: a substrate having a first surface and a second surface; a closed-loop resonant ring-shaped structure disposed over the first surface of the substrate, the resonant ring-shaped structure having dimensions selected to support at least one standing wave having more than one electric field maximum along a length of the resonant ring-shaped structure; a ground plane disposed on the second surface of the substrate; and an apparatus configured to provide a gas at locations of the electric field maxima. a substrate having a first surface and a second surface; a closed-loop resonant ring-shaped structure disposed over the first surface of the substrate, the resonant ring-shaped structure having dimensions selected to support at least one standing wave having more than one electric field maximum along a length of the resonant ring-shaped structure; a ground plane disposed on the second surface of the substrate; and an apparatus configured to provide a gas at locations of the electric field maxima.
A method of forming a barbed medical device, wherein the barbs as formed have an angle of less than 90 degrees between the barbs and the wound closure body comprising the steps of: providing a blank workpiece; and forming at least one barb on the blank workpiece by: applying vibrational energy to a tool, and bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece, characterized in that the vibrational energy is ultrasonic energy. providing a blank workpiece; and forming at least one barb on the blank workpiece by: applying vibrational energy to a tool, and bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece, characterized in that the vibrational energy is ultrasonic energy. applying vibrational energy to a tool, and bringing the tool and the blank workpiece into contact at an angle such that the tool cuts into the surface of the blank workpiece, characterized in that the vibrational energy is ultrasonic energy.
A method of reducing foam formation in returned ink in a continuous inkjet printer, said printer having a returned ink receiving chamber; a returned ink delivery discharging into said chamber; and an ink pick-up leading from said chamber, said method being characterised in that it includes slowing the flowrate of returning ink by locating said returned ink delivery in a sub-chamber located within said chamber, wherein ink is fed into a lower region of said sub-chamber beneath a surface of ink in said sub-chamber and the ink surface in said sub-chamber is caused to rise and to overflow into said chamber.
A transport mechanism for a mailing machine, the transport mechanism registering a face of a mail piece against a bottom surface of a registration plate, the transport mechanism comprising: a support bracket; a support spring coupled to the support bracket, the support spring providing a biasing force on the support bracket in a first direction towards the registration plate; at least one up-stop to limit movement of the support bracket in the first direction; a first idler roller and a first drive roller, each having a first radius, the first idler roller being located near a first end of the support bracket, the first drive roller being located near a second end of the support bracket; a second idler roller and a third idler roller located between the first idler roller and first drive roller, each of the second and third idler rollers (140, 142) having a second radius greater than the first radius, the second and third idler rollers being displaceable with respect to the support bracket; and a belt looped around the first idler roller, first drive roller, second idler roller and third idler roller, a portion of the bottom surface of the registration plate contacting a portion of the belt between the second idler roller and the third idler roller. a support bracket; a support spring coupled to the support bracket, the support spring providing a biasing force on the support bracket in a first direction towards the registration plate; at least one up-stop to limit movement of the support bracket in the first direction; a first idler roller and a first drive roller, each having a first radius, the first idler roller being located near a first end of the support bracket, the first drive roller being located near a second end of the support bracket; a second idler roller and a third idler roller located between the first idler roller and first drive roller, each of the second and third idler rollers (140, 142) having a second radius greater than the first radius, the second and third idler rollers being displaceable with respect to the support bracket; and a belt looped around the first idler roller, first drive roller, second idler roller and third idler roller, a portion of the bottom surface of the registration plate contacting a portion of the belt between the second idler roller and the third idler roller.
Method for controlling a torpedo to at least one target, wherein the torpedo emerges during its travel to the target once or several times into the area of a body of water which is close to the surface and adjacent to the surface of the water, wherein, however, the torpedo remains submerged even in this area close to the surface and a radio aerial moves out into an area above the water surface, characterized by that the torpedo then receives position data that comprises target position data of the target which is transmitted to the torpedo from a land-, air- or sea-supported guidance location via the radio aerial and uses this position data to steer at the target.
A rotary printing device, including - at least one printing unit structure, which comprises at least one printing cylinder for printing a printing medium, and - at least one moving device, which is configured to move the at least one printing unit structure towards a desired position (P_S) of the at least one printing unit structure in relation to a setup component of the rotary printing device and opposite to at least one transverse force (F_Q) acting on the at least one printing cylinder in the operation of the rotary printing device, wherein the at least one moving device includes at least one linear motor, which comprises motor components (62, 64) for moving the at least one printing unit structure towards the desired position (P_S), of which a first motor component of the motor components (62, 64) is coupled to the at least one printing unit structure and linearly movable in relation to a second motor component, characterized in that the at least one printing unit structure is formed as a printing unit carriage and comprises respective rollers (22, 24) and/or wheels for supporting a weight force (F_G) of the at least one printing unit structure on a contact area (S_A). - at least one printing unit structure, which comprises at least one printing cylinder for printing a printing medium, and - at least one moving device, which is configured to move the at least one printing unit structure towards a desired position (P_S) of the at least one printing unit structure in relation to a setup component of the rotary printing device and opposite to at least one transverse force (F_Q) acting on the at least one printing cylinder in the operation of the rotary printing device,
Side stabilizer for agricultural machines comprising: a hollow body open at one extremity and closed at the opposite extremity which is associable with the structure of an agricultural machine, a cylindrical element fitted sliding inside said hollow body along a direction of translation and associable with the lower arm of a three-point linkage, at least one locator element fitted tight and mobile inside said hollow body and the position of which is adjustable in a fluid-dynamic manner to adjust the end-of-stroke position of said cylindrical element along at least one sense of said direction of translation, protection means of said locator element placed between said hollow body and said cylindrical element so as to define a substantially closed chamber inside which the locator element itself is contained, wherein said protection means comprise at least a protection element having a substantially tubular conformation and fitted around said cylindrical element and characterized in that said protection element is fixed with respect to said hollow body. a hollow body open at one extremity and closed at the opposite extremity which is associable with the structure of an agricultural machine, a cylindrical element fitted sliding inside said hollow body along a direction of translation and associable with the lower arm of a three-point linkage, at least one locator element fitted tight and mobile inside said hollow body and the position of which is adjustable in a fluid-dynamic manner to adjust the end-of-stroke position of said cylindrical element along at least one sense of said direction of translation, protection means of said locator element placed between said hollow body and said cylindrical element so as to define a substantially closed chamber inside which the locator element itself is contained, wherein said protection means comprise at least a protection element having a substantially tubular conformation and fitted around said cylindrical element and characterized in that said protection element is fixed with respect to said hollow body.
An antiskid brake control system, comprising: a brake control unit, BCU; a wheel/brake assembly (132,134) comprising a wheel, a brake stack, and an actuator configured to apply a braking force onto the brake stack; and a wheel speed sensor in electronic communication with the BCU, the wheel speed sensor configured to detect a wheel speed corresponding to the wheel; wherein the BCU is configured to: receive an aircraft mass from an avionics unit; calculate an aircraft kinetic energy; generate an antiskid brake command signal based upon the aircraft kinetic energy; and send the antiskid brake command signal to a brake control component for controlling the braking force; and characterised in that the BCU is further configured to calculate an aircraft speed based upon the wheel speed, and the BCU calculates the aircraft kinetic energy using the aircraft speed and the aircraft mass, and wherein the BCU is further configured to adjust an antiskid parameter based upon the aircraft kinetic energy. a brake control unit, BCU; a wheel/brake assembly (132,134) comprising a wheel, a brake stack, and an actuator configured to apply a braking force onto the brake stack; and a wheel speed sensor in electronic communication with the BCU, the wheel speed sensor configured to detect a wheel speed corresponding to the wheel; wherein the BCU is configured to: receive an aircraft mass from an avionics unit; calculate an aircraft kinetic energy; generate an antiskid brake command signal based upon the aircraft kinetic energy; and send the antiskid brake command signal to a brake control component for controlling the braking force; and receive an aircraft mass from an avionics unit; calculate an aircraft kinetic energy; generate an antiskid brake command signal based upon the aircraft kinetic energy; and send the antiskid brake command signal to a brake control component for controlling the braking force; and characterised in that the BCU is further configured to calculate an aircraft speed based upon the wheel speed, and the BCU calculates the aircraft kinetic energy using the aircraft speed and the aircraft mass, and wherein the BCU is further configured to adjust an antiskid parameter based upon the aircraft kinetic energy.
A gasket structure that can be used on the PVC profile systems to be used at automotive sector or construction sector that offers ease of assembly to the users and improved strength and sealing properties, that comprises a main body which comprises an assembly protrusion in order to fit into the PVC profile system, an additional piece that is combined with the main body by means of a co-extrusion method, characterized by comprising; • a main body wherein the main body is monolithic; or wherein the main body comprises a combination of two materials that are joined in a junction point which is being covered by the additional piece in order to prevent rupture of the junction point, • an additional piece that is positioned to cover completely the outdoor section contacting with air after the gasket structure is mounted with the PVC profile system, that has higher oil density compared to the main body to prevent oil bleeding, that comprises a volume smaller than volume of the main body, that prevents the retraction of the main body due to its higher rigidity level than the main body, and that may be in different geometries depending on shape of the gasket structure. • a main body wherein the main body is monolithic; or wherein the main body comprises a combination of two materials that are joined in a junction point which is being covered by the additional piece in order to prevent rupture of the junction point, • an additional piece that is positioned to cover completely the outdoor section contacting with air after the gasket structure is mounted with the PVC profile system, that has higher oil density compared to the main body to prevent oil bleeding, that comprises a volume smaller than volume of the main body, that prevents the retraction of the main body due to its higher rigidity level than the main body, and that may be in different geometries depending on shape of the gasket structure.
A method for wireless communication, comprising: identifying data to be transmitted in a data packet to a receiver; identifying a first coding scheme and a second coding scheme for coding the data; identifying a first portion of the data packet and a second portion of the data packet, wherein the first portion of the data packet is associated with a different processing requirement than the second portion of the data packet; and transmitting the data packet, wherein the first portion of the data packet is transmitted according to the first coding scheme and the second portion of the data packet is transmitted according to the second coding scheme, wherein the first coding scheme for the first portion of the data packet uses a code rate or a block size that is reduced relative to a code rate or a block size used for the second portion of the data packet, wherein the first portion of the data packet is used to provide enhanced channel estimation information, and wherein the enhanced channel estimation information is used to support the code rate or block size of the second portion of the data packet. identifying data to be transmitted in a data packet to a receiver; identifying a first coding scheme and a second coding scheme for coding the data; identifying a first portion of the data packet and a second portion of the data packet, wherein the first portion of the data packet is associated with a different processing requirement than the second portion of the data packet; and transmitting the data packet, wherein the first portion of the data packet is transmitted according to the first coding scheme and the second portion of the data packet is transmitted according to the second coding scheme, wherein the first coding scheme for the first portion of the data packet uses a code rate or a block size that is reduced relative to a code rate or a block size used for the second portion of the data packet, wherein the first portion of the data packet is used to provide enhanced channel estimation information, and wherein the enhanced channel estimation information is used to support the code rate or block size of the second portion of the data packet.
A marker composite for medical implants composed of a biocorrodible metal material, wherein the marker composite contains a plurality of particles formed from a radiopaque metal which are embedded in an electrically non-conductive polymer, and wherein the particles comprise an additional electrically non-conductive coating.
Tourniquet cuff for application to a limb, having an inflatable body surrounding an inflatable chamber and which is inflatable from a pressure-less base state using a compressed gas in order to generate a blood restriction in the limb, and an attachment means (16, 17) for fixing the tourniquet cuff to the limb, wherein the inflatable body is formed from an elongated support extending along a longitudinal direction and made from a gastight and flexible support material and a stretchable wall attached to the support and made from a gastight stretchable material, characterised in that the stretchable wall is stretched at least in the longitudinal direction of the support even in the pressure-less base state of the inflatable body.
Device for determining a flow characteristic, in particular flow velocity, of a fluid in a conduit, comprising a conduit body, a first pair of ultrasonic transducers (116, 118) defining a first swirl sensitive acoustic path, a second pair of ultrasonic transducers (122. 124) defining a second swirl sensitive acoustic path, the ultrasonic transducers (116, 118; 122, 124) of the first pair and the second pair being positioned along a first line and a second line at the wall of the conduit body, the first and second lines being parallel to the conduit axis and at the same position of the conduit body, the first and second swirl sensitive paths (120, 126) having a clockwise and a counter clockwise orientation respectively as seen in axial direction, a third pair of ultrasonic transducers (128, 130) defining a third swirl sensitive acoustic path, a fourth pair of ultrasonic transducers (132, 134) defining a fourth swirl sensitive acoustic path, the ultrasonic transducers (128, 130; 132, 134) of the third pair and the fourth pair being positioned along a third line and a fourth line at the wall of the conduit body parallel to the conduit axis, the third and fourth swirl sensitive paths (136, 138) having a clockwise and a counter clockwise orientation respectively as seen in axial direction, the third and fourth lines being at the same position of the conduit body and tangentially staggered with respect to the first and second lines, the transducers (116, 118; 122, 124; 128, 130; 132, 134) of each pair being arranged spaced apart in the axial direction of the conduit body and the acoustic paths (120, 126, 136, 138) extending in the axial direction of the conduit body, wherein the transducers (116, 118; 122, 124; 128, 130; 132, 134) are capable of acting individually as a transmitter and receiver for transmitting ultrasonic waves along their respective acoustic paths and receiving thereof, means (142, 144) for measuring the transit times of transmitted ultrasonic waves and for determining a flow characteristic from the measured transit times,