mhurhangee/ep-ind-claims huggingface dataset:
A rolling element bearing, comprising: a plurality of bearing components including one or more rolling elements, an inner ring and an outer ring; a first of the bearing components comprising martensitic stainless steel configured with a core and a hardened case, wherein the first of the bearing components is one of the one or more rolling elements, the inner ring or the outer ring; the martensitic stainless steel of the core including 8-18% by weight chromium; and the martensitic stainless steel of the hardened case having a grain size that is equal to or finer than ASTM grain size #7, and including 6% by weight or more chromium, and carbon; wherein molecules that include said carbon are uniformly dispersed within the hardened case; and wherein the martensitic stainless steel of the hardened case comprises between two and fifteen percent by volume retained austenite and between 0.8 and 4 percent by weight of the carbon, characterized in that the molecules that include carbon are carbonitrides. a plurality of bearing components including one or more rolling elements, an inner ring and an outer ring; a first of the bearing components comprising martensitic stainless steel configured with a core and a hardened case, wherein the first of the bearing components is one of the one or more rolling elements, the inner ring or the outer ring; the martensitic stainless steel of the core including 8-18% by weight chromium; and the martensitic stainless steel of the hardened case having a grain size that is equal to or finer than ASTM grain size #7, and including 6% by weight or more chromium, and carbon; wherein molecules that include said carbon are uniformly dispersed within the hardened case; and wherein the martensitic stainless steel of the hardened case comprises between two and fifteen percent by volume retained austenite and between 0.8 and 4 percent by weight of the carbon, characterized in that the molecules that include carbon are carbonitrides.
A suture (10; 110) comprising: an elongate body (11; 111) including a proximal end and a distal end; a loop (12; 112) integrally formed on the distal end of the elongate body (11; 111), wherein at least a portion of the loop (12; 112) includes a shape memory polymeric material; and wherein the shape memory polymeric material is configured to radially expand and axially shorten when transitioning from a temporary configuration to a permanent configuration, and the radial expansion and axial shortening causes constricting of the loop (12; 112). an elongate body (11; 111) including a proximal end and a distal end; a loop (12; 112) integrally formed on the distal end of the elongate body (11; 111), wherein at least a portion of the loop (12; 112) includes a shape memory polymeric material; and wherein the shape memory polymeric material is configured to radially expand and axially shorten when transitioning from a temporary configuration to a permanent configuration, and the radial expansion and axial shortening causes constricting of the loop (12; 112).
A display apparatus comprising: a display panel to display an image; and a cushion plate disposed under the display panel, wherein the cushion plate comprises: an adhesive member; and a porous member disposed on the adhesive member, the porous member- having a body portion area and a side portion area disposed along a side face of the body portion area, wherein a thickness of the side portion area is smaller than a thickness of the body portion area, and characterized in that the the porous member includes a conductive metal and a plurality of pores disposed inside the conductive metal and wherein a porosity of the side portion area is lower than a porosity of the body portion area. a display panel to display an image; and a cushion plate disposed under the display panel, wherein the cushion plate comprises: an adhesive member; and a porous member disposed on the adhesive member, the porous member- having a body portion area and a side portion area disposed along a side face of the body portion area, wherein a thickness of the side portion area is smaller than a thickness of the body portion area, and characterized in that the the porous member includes a conductive metal and a plurality of pores disposed inside the conductive metal and wherein a porosity of the side portion area is lower than a porosity of the body portion area. an adhesive member; and a porous member disposed on the adhesive member, the porous member- having a body portion area and a side portion area disposed along a side face of the body portion area, wherein a thickness of the side portion area is smaller than a thickness of the body portion area, and characterized in that the the porous member includes a conductive metal and a plurality of pores disposed inside the conductive metal and wherein a porosity of the side portion area is lower than a porosity of the body portion area.
A dual-mode gimbaled optical system comprising: a nod gimbal configured to rotate about a nod axis; an off-gimbal detector assembly configured to receive electromagnetic radiation; a receiver-path optical assembly configured to receive the electromagnetic radiation from object space and to direct and focus the electromagnetic radiation along a receiver optical path to the off-gimbal detector assembly, the receiver-path optical assembly including on-gimbal objective optics disposed on the nod gimbal; an optical source configured to generate an optical signal, the optical source being located off the nod gimbal; an optical fiber coupled to the optical source and configured to transport the optical signal; a nod-axis bearing assembly configured to support rotation of the nod gimbal about the nod axis, the nod axis bearing assembly including a centrally-located output ferrule mated to the optical fiber and configured to receive the optical signal from the optical fiber and to output the optical signal as an optical beam; and an optical coupling element configured to receive the optical beam from the output ferrule and to couple the optical beam into the receiver optical path and to direct the optical beam toward the on-gimbal objective optics,wherein the optical coupling element is disposed approximately centered on the nod axis, and wherein the optical coupling element is a fold mirror. a nod gimbal configured to rotate about a nod axis; an off-gimbal detector assembly configured to receive electromagnetic radiation; a receiver-path optical assembly configured to receive the electromagnetic radiation from object space and to direct and focus the electromagnetic radiation along a receiver optical path to the off-gimbal detector assembly, the receiver-path optical assembly including on-gimbal objective optics disposed on the nod gimbal; an optical source configured to generate an optical signal, the optical source being located off the nod gimbal; an optical fiber coupled to the optical source and configured to transport the optical signal; a nod-axis bearing assembly configured to support rotation of the nod gimbal about the nod axis, the nod axis bearing assembly including a centrally-located output ferrule mated to the optical fiber and configured to receive the optical signal from the optical fiber and to output the optical signal as an optical beam; and an optical coupling element configured to receive the optical beam from the output ferrule and to couple the optical beam into the receiver optical path and to direct the optical beam toward the on-gimbal objective optics,wherein the optical coupling element is disposed approximately centered on the nod axis, and wherein the optical coupling element is a fold mirror.
A mobile communication terminal device comprising: a specifying unit that is configured to specify a voice call partner; an outgoing call control unit that is configured to call the specified partner; a measurement unit that is configured to measure an orientation or a displacement of the communication terminal device; and a proximity detection unit that is configured to detect when a head area of a user is near the communication terminal device, characterised in that, in the case where the head area is detected as being near, the specifying unit is configured to specify the partner on the basis of the orientation or displacement measured before the head area was detected as being near and a tilting orientation measured while the head area was detected as being near. a specifying unit that is configured to specify a voice call partner; an outgoing call control unit that is configured to call the specified partner; a measurement unit that is configured to measure an orientation or a displacement of the communication terminal device; and a proximity detection unit that is configured to detect when a head area of a user is near the communication terminal device, characterised in that, in the case where the head area is detected as being near, the specifying unit is configured to specify the partner on the basis of the orientation or displacement measured before the head area was detected as being near and a tilting orientation measured while the head area was detected as being near.
A device for treating internal walls of aquatic tanks, having at least two suction heads connected together by a framework and a mobility assembly for moving the treatment device along a wall to be treated, said mobility assembly having a motor-driven carriage with wheels, rollers or crawlers, said device being characterized in that said carriage is able to be activated or oriented in two unique running positions that are angularly spaced apart from one another by 90 degrees, and in that the carriage is independent of the suction heads, connected to the framework and positioned at the center of the latter.
A lithium ion secondary battery, comprising: positive and negative electrodes capable of absorbing and desorbing lithium; and a non-aqueous electrolyte composition, wherein the negative electrode includes a negative electrode active material containing silicon; wherein the positive electrode includes a positive electrode active material represented by the following composition formula; and wherein the non-aqueous electrolyte composition includes a lithium salt represented by the following chemical formula, a Li[Li 1/3 M1 2/3]O 2 ·( 1-a)LiM2O 2 where M1 represents at least one kind of metal element selected from the group consisting of Mn, Ti, Zr and V; M2 represents at least one kind of metal element selected from the group consisting of Ni, Co, Mn, Al, Cr, Fe, V, Mg and Zn; and a represents a composition ratio and is in a range of 0.5 to 0.9, (C n F 2 n +1 SO 2)(C m F 2 m +1 SO 2)NLi where m and n each independently represent an integer of 2 or more.
Robot comprising: a torque sensor (100, 200) for measuring a torque applied to a movable element (61, 62) of the robot, the torque sensor comprising: a hollow shaft which is magnetised in a first circumferential direction in a first axial portion and to which a torque to be measured can be applied; a first magnetic-field sensor for detecting a magnetic field which is outside of the hollow shaft and produced by the first portion of the hollow shaft; characterised by a ferromagnetic hollow rod for isolating the hollow shaft and/or the first magnetic-field sensor from magnetic fields that are present or can be produced inside the hollow rod, the hollow rod extending inside the hollow shaft and therethrough; the hollow rod being designed to have at least one electrical line fed therethrough and to isolate magnetic fields that can be produced by the at least one electrical line; and at least one power supply line for an electric motor of the movable element and/or a data line of the robot being guided through the hollow rod. a hollow shaft which is magnetised in a first circumferential direction in a first axial portion and to which a torque to be measured can be applied; a first magnetic-field sensor for detecting a magnetic field which is outside of the hollow shaft and produced by the first portion of the hollow shaft; characterised by a ferromagnetic hollow rod for isolating the hollow shaft and/or the first magnetic-field sensor from magnetic fields that are present or can be produced inside the hollow rod, the hollow rod extending inside the hollow shaft and therethrough; the hollow rod being designed to have at least one electrical line fed therethrough and to isolate magnetic fields that can be produced by the at least one electrical line; and at least one power supply line for an electric motor of the movable element and/or a data line of the robot being guided through the hollow rod.
A multilayer laminate comprising: a support layer defining two oppositely directed faces; a first release layer disposed on one of the faces of the support layer; a second release layer disposed on another of the faces of the support layer having a composition different from that of the first release layer; at least one preformed image or graphic disposed on the first release layer; and at least one adhesive layer disposed on the image or graphic; wherein the release force of the first release layer is greater than the release force of the second release layer, and wherein a ratio of the release force of the second release layer to the release force of the first release layer is within a range of from 1:1.5 to 1:100, respectively. a support layer defining two oppositely directed faces; a first release layer disposed on one of the faces of the support layer; a second release layer disposed on another of the faces of the support layer having a composition different from that of the first release layer; at least one preformed image or graphic disposed on the first release layer; and at least one adhesive layer disposed on the image or graphic; wherein the release force of the first release layer is greater than the release force of the second release layer, and wherein a ratio of the release force of the second release layer to the release force of the first release layer is within a range of from 1:1.5 to 1:100, respectively.
A memory controller (410; 760-B), comprising: a translation module that receives an expected physical memory address associated with a request for the expected physical memory address from a processor (930, 982) and translates the expected physical memory address having a fixed sized addressed memory region to a real physical memory address having a varying sized addressed memory region of spatially distinct regions of memory having similar expected or experienced weakness to succumbing to memory errors; wherein the varying sized addressed memory region comprises a data portion and a metadata portion, the metadata portion being of variable width according to a determined error correction requirement for the spatially distinct regions of memory; wherein the translation module further performs a look up of an error correction attribute of the corresponding real physical memory address, wherein the error correction attribute comprises an indication of a number of cycles to service the request to the corresponding real physical memory address, the number of cycles being dependent on the determined error correction requirement for the varying sized addressed memory region addressed by the real physical memory address; and control logic that issues commands to at least one memory device (700-B) according to the real physical address identified by the translation module, wherein the commands comprise a row command and a column command based on the real physical memory address, and a cycle command based on the number of cycles. a translation module that receives an expected physical memory address associated with a request for the expected physical memory address from a processor (930, 982) and translates the expected physical memory address having a fixed sized addressed memory region to a real physical memory address having a varying sized addressed memory region of spatially distinct regions of memory having similar expected or experienced weakness to succumbing to memory errors; wherein the varying sized addressed memory region comprises a data portion and a metadata portion, the metadata portion being of variable width according to a determined error correction requirement for the spatially distinct regions of memory; wherein the translation module further performs a look up of an error correction attribute of the corresponding real physical memory address, wherein the error correction attribute comprises an indication of a number of cycles to service the request to the corresponding real physical memory address, the number of cycles being dependent on the determined error correction requirement for the varying sized addressed memory region addressed by the real physical memory address; and control logic that issues commands to at least one memory device (700-B) according to the real physical address identified by the translation module, wherein the commands comprise a row command and a column command based on the real physical memory address, and a cycle command based on the number of cycles.
A method for shaping an elongated glass body, which is a glass tube or glass rod and has an initial profile, to an elongated glass body having a different profile, in which method the elongated glass body passes, in a hot malleable state, through a nip, which is formed by squeezing rollers and has a nip width which is less than an outer dimension of the initial profile, wherein the position of at least one of the squeezing rollers is varied continuously by a continuous axial adjustment of the respective squeezing roller according to a predetermined movement function so that a contact area between the respective squeezing roller and the hot glass body is varied continuously, wherein the predetermined movement function is a cyclic reciprocating movement of the respective squeezing roller in the axial direction thereof.
Method of diagnosing lung cancer in a patient by detecting a marker protein SLC9A3R2 in a patient comprising the step of detecting antibodies binding said marker protein in a sample of the patient.
A communication method performed by a terminal device, comprising: receiving first information, second information, third information, and fourth information from a first network device, wherein the first information indicates a position of a time-frequency resource occupied by a physical downlink control channel PDCCH control resource set CORESET of a second network device; the second information indicates that each demodulation reference signal DMRS code division multiplexing CDM group comprised in a DMRS symbol occupies n resource elements REs consecutive in frequency domain, wherein n is a positive integer and is greater than 2; the third information indicates a symbol position of the DMRS symbol in a different-configuration slot; the fourth information indicates a time domain position of at least one different-configuration slot; and the first network device is located within coverage of the second network device; receiving uplink grant information from the first network device, wherein the uplink grant information indicates a position of a time-frequency resource for uplink data of the terminal device; and sending the DMRS symbol to the first network device in a first different-configuration slot based on the second information and the third information, wherein the first different-configuration slot is at least one of the at least one different-configuration slot, and the position of the time-frequency resource occupied by the uplink data of the terminal device overlaps, in the first different-configuration slot, the position of the time-frequency resource occupied by the PDCCH CORESET. receiving first information, second information, third information, and fourth information from a first network device, wherein the first information indicates a position of a time-frequency resource occupied by a physical downlink control channel PDCCH control resource set CORESET of a second network device; the second information indicates that each demodulation reference signal DMRS code division multiplexing CDM group comprised in a DMRS symbol occupies n resource elements REs consecutive in frequency domain, wherein n is a positive integer and is greater than 2; the third information indicates a symbol position of the DMRS symbol in a different-configuration slot; the fourth information indicates a time domain position of at least one different-configuration slot; and the first network device is located within coverage of the second network device; receiving uplink grant information from the first network device, wherein the uplink grant information indicates a position of a time-frequency resource for uplink data of the terminal device; and sending the DMRS symbol to the first network device in a first different-configuration slot based on the second information and the third information, wherein the first different-configuration slot is at least one of the at least one different-configuration slot, and the position of the time-frequency resource occupied by the uplink data of the terminal device overlaps, in the first different-configuration slot, the position of the time-frequency resource occupied by the PDCCH CORESET.
A method for folding discrete items comprising: conveying said item in a machine direction; carrying a top side of a leading portion of said item and rotating said leading portion in a first rotational direction; contacting a midsection of said item with a folding finger traveling in said machine direction; releasing said top side of said leading portion of said item; and carrying a bottom side of said leading portion of said item and rotating said leading portion in said first rotational direction; characterised by further comprising releasing said bottom side of said leading portion of said item to lay said leading portion of said item atop a trailing portion of said item. conveying said item in a machine direction; carrying a top side of a leading portion of said item and rotating said leading portion in a first rotational direction; contacting a midsection of said item with a folding finger traveling in said machine direction; releasing said top side of said leading portion of said item; and carrying a bottom side of said leading portion of said item and rotating said leading portion in said first rotational direction; characterised by further comprising releasing said bottom side of said leading portion of said item to lay said leading portion of said item atop a trailing portion of said item.
A phototherapeutic agent for use in a method of treating onychomycosis, the method comprising the steps of applying the phototherapeutic agent to a nail structure, waiting for a period of from 3 to 30 days after applying the phototherapeutic agent, and exposing the nail to light that causes an activation reaction; wherein the phototherapeutic agent is selected from the group consisting of amino levulinic acid, alkylated derivatives of ALA, and their pharmaceutically acceptable salts.
A mounting system for supporting rotating machinery, comprising: a base frame having an upper side for mounting and supporting the rotating machinery (3, 5, 7), and a lower side; a set of main supporting members, arranged according to a triangular arrangement and forming a three-point mounting arrangement defining a mounting plane; and characterized by a set of auxiliary supporting members, having a non-linear variable stiffness (S1, S2) in at least one direction, configured and arranged such as to increase the stiffness thereof when the base frame is subject to an overload, thus reducing load on the main supporting members. a base frame having an upper side for mounting and supporting the rotating machinery (3, 5, 7), and a lower side; a set of main supporting members, arranged according to a triangular arrangement and forming a three-point mounting arrangement defining a mounting plane; and characterized by a set of auxiliary supporting members, having a non-linear variable stiffness (S1, S2) in at least one direction, configured and arranged such as to increase the stiffness thereof when the base frame is subject to an overload, thus reducing load on the main supporting members.