mhurhangee/ep-ind-claims huggingface dataset:
An electrical machine comprising: • a two-part rotor having a rotational axis and formed of: - a first rotor part which includes a conical section and which is mounted to a shaft of the machine; - a second rotor part positioned radially outside the first rotor part and which has a bore including a complementary conical section, the second rotor part configured to displace axially between a first state, in which it is engaged with the first rotor part to form the rotor of the electrical machine, and a second state, in which it is axially disengaged from the first rotor part; and the second rotor part including an annular array of permanent magnets on its outer periphery; • a stator including electrical coils and being positioned radially outside the rotor; and • a clutch having an engaged state and a disengaged state; wherein when the clutch is in one of the engaged and disengaged states the second rotor part is in its first state and wherein switching the clutch to the other of its engaged and disengaged states axially displaces the second rotor part to its second state. • a two-part rotor having a rotational axis and formed of: - a first rotor part which includes a conical section and which is mounted to a shaft of the machine; - a second rotor part positioned radially outside the first rotor part and which has a bore including a complementary conical section, the second rotor part configured to displace axially between a first state, in which it is engaged with the first rotor part to form the rotor of the electrical machine, and a second state, in which it is axially disengaged from the first rotor part; and the second rotor part including an annular array of permanent magnets on its outer periphery; - a first rotor part which includes a conical section and which is mounted to a shaft of the machine; - a second rotor part positioned radially outside the first rotor part and which has a bore including a complementary conical section, the second rotor part configured to displace axially between a first state, in which it is engaged with the first rotor part to form the rotor of the electrical machine, and a second state, in which it is axially disengaged from the first rotor part; and the second rotor part including an annular array of permanent magnets on its outer periphery; • a stator including electrical coils and being positioned radially outside the rotor; and • a clutch having an engaged state and a disengaged state; wherein when the clutch is in one of the engaged and disengaged states the second rotor part is in its first state and wherein switching the clutch to the other of its engaged and disengaged states axially displaces the second rotor part to its second state.
A method of operating a relay device to receive data from one or more terminal devices (206, 208) and relay the data to network infrastructure equipment in a wireless telecommunications system, the method comprising: receiving a plurality of blocks of data from one or more terminal devices at different times, wherein each block of data is received in association with an indication of a time by which the block of data should be transmitted to the network infrastructure equipment; storing the plurality of blocks of data at the relay device; determining the earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment; and transmitting the plurality of blocks of data to the network infrastructure equipment together in advance of the determined earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment. receiving a plurality of blocks of data from one or more terminal devices at different times, wherein each block of data is received in association with an indication of a time by which the block of data should be transmitted to the network infrastructure equipment; storing the plurality of blocks of data at the relay device; determining the earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment; and transmitting the plurality of blocks of data to the network infrastructure equipment together in advance of the determined earliest time by which one of the received blocks of data should be transmitted to the network infrastructure equipment.
A power transmission device comprising: a pinion gear having a large pinion gear (431-Fig.27) and a small pinion gear; a wall part (120-Fig.27) that overlaps a revolution orbit of the large pinion gear (431-Fig.27) in an axial direction that is a revolution axis direction of the pinion gear; a plate that is provided between the wall part (120-Fig.27) and the large pinion gear (431-Fig.27); and a bottom part (143-Fig.27) provided at a lower part of the plate (8-Fig.27) and a lower part of the revolution orbit of the large pinion gear (431-Fig.27), characterized in that the bottom part (143-Fig.27) is provided at the lower part of the plate (8-Fig.27) and the lower part of the revolution orbit of the large pinion gear (431-Fig.27) with a clearance (CL-Fig.27) being interposed, and a space on a wall part (120-Fig.27) side of the plate (8-Fig.27) and a space on a large pinion gear (431-Fig.27) side of the plate (8-Fig.27) in the axial direction are in communication with each other via the clearance (CL-Fig.27) positioned at the lower part of the plate (8-Fig.27). a pinion gear having a large pinion gear (431-Fig.27) and a small pinion gear; a wall part (120-Fig.27) that overlaps a revolution orbit of the large pinion gear (431-Fig.27) in an axial direction that is a revolution axis direction of the pinion gear; a plate that is provided between the wall part (120-Fig.27) and the large pinion gear (431-Fig.27); and a bottom part (143-Fig.27) provided at a lower part of the plate (8-Fig.27) and a lower part of the revolution orbit of the large pinion gear (431-Fig.27), characterized in that the bottom part (143-Fig.27) is provided at the lower part of the plate (8-Fig.27) and the lower part of the revolution orbit of the large pinion gear (431-Fig.27) with a clearance (CL-Fig.27) being interposed, and a space on a wall part (120-Fig.27) side of the plate (8-Fig.27) and a space on a large pinion gear (431-Fig.27) side of the plate (8-Fig.27) in the axial direction are in communication with each other via the clearance (CL-Fig.27) positioned at the lower part of the plate (8-Fig.27).
A furnace system, comprising: a furnace; and, a mixing chamber defining an inlet end configured to receive separate streams of raw material and preheated cullet mix and an outlet end spaced from the inlet end and configured to discharge a combined stream of the raw material and the preheated cullet mix, the mixing chamber tapering from the inlet end to the outlet end and defining first and second opposed sidewalls that approach one another moving from the inlet end to the outlet end, the mixing chamber defining a first inlet in the inlet end configured to receive one of the raw material or the preheated cullet mix, the first inlet aligned with an outlet in the outlet end along a vertical axis, the mixing chamber further defining a second inlet in the inlet end configured to receive the other of the raw material or the preheated cullet mix, the second inlet offset from the outlet relative to the vertical axis such that the other of the raw material and the preheated cullet mix is deposited on the first sidewall before reaching the outlet; and, a charger having an inlet end coupled to the outlet end of the mixing chamber and configured to receive the combined stream of the raw material and the preheated cullet mix and an outlet end through which a mixture of the raw materiel and the preheated cullet mix is discharged from the charger into a molten bath in a furnace. a furnace; and, a mixing chamber defining an inlet end configured to receive separate streams of raw material and preheated cullet mix and an outlet end spaced from the inlet end and configured to discharge a combined stream of the raw material and the preheated cullet mix, the mixing chamber tapering from the inlet end to the outlet end and defining first and second opposed sidewalls that approach one another moving from the inlet end to the outlet end, the mixing chamber defining a first inlet in the inlet end configured to receive one of the raw material or the preheated cullet mix, the first inlet aligned with an outlet in the outlet end along a vertical axis, the mixing chamber further defining a second inlet in the inlet end configured to receive the other of the raw material or the preheated cullet mix, the second inlet offset from the outlet relative to the vertical axis such that the other of the raw material and the preheated cullet mix is deposited on the first sidewall before reaching the outlet; and, a charger having an inlet end coupled to the outlet end of the mixing chamber and configured to receive the combined stream of the raw material and the preheated cullet mix and an outlet end through which a mixture of the raw materiel and the preheated cullet mix is discharged from the charger into a molten bath in a furnace.
Radial fan with an external rotor motor (6+8) and a housing, which has: a stator with a multi-part armature of conductive sheet metal comprising a plurality of pole pieces and stator windings, a rotor externally surrounding the stator and having permanent magnets and externally located fan blades, and a rotor shaft rotatably supported in the stator and a printed circuit board is provided which is arranged at a distance from the stator windings and from which connection lines lead from an operating voltage and ground to the stator windings, at least one electrically conductive connection being led from the electrically conductive armature of the stator to at least one terminal of the printed circuit board and this terminal being connected to a fixed potential (GND, 0, VCC). characterized in that the electrically conductive connection is designed as a resilient element (19, 20), one end of which is firmly connected to the armature or a terminal of the printed circuit board and the other end of which is pressed resiliently against a terminal of the printed circuit board or the armature. a stator with a multi-part armature of conductive sheet metal comprising a plurality of pole pieces and stator windings, a rotor externally surrounding the stator and having permanent magnets and externally located fan blades, and a rotor shaft rotatably supported in the stator and a printed circuit board is provided which is arranged at a distance from the stator windings and from which connection lines lead from an operating voltage and ground to the stator windings, at least one electrically conductive connection being led from the electrically conductive armature of the stator to at least one terminal of the printed circuit board and this terminal being connected to a fixed potential (GND, 0, VCC). characterized in that the electrically conductive connection is designed as a resilient element (19, 20), one end of which is firmly connected to the armature or a terminal of the printed circuit board and the other end of which is pressed resiliently against a terminal of the printed circuit board or the armature.
A compound planetary gear train, including: a sun gear; a stationary annulus gear; a first set of planet gears meshing with the stationary annulus gear; a moving annulus gear; and a second set of planet gears meshing with the sun gear and the moving annulus gear; wherein the planet gears (2, 3) are biased into contact with the annulus gears (4, 5); wherein the planet gears (2, 3) are mounted on shafts carried on an annulus surrounding the sun gear, and the shafts are biased radially outwardly; characterized in that the annulus is divided into a number of annular sectors, each pair of neighbouring sectors having radial end faces which face each other, and the radial end faces being biased away from each other. a sun gear; a stationary annulus gear; a first set of planet gears meshing with the stationary annulus gear; a moving annulus gear; and a second set of planet gears meshing with the sun gear and the moving annulus gear; wherein the planet gears (2, 3) are biased into contact with the annulus gears (4, 5); wherein the planet gears (2, 3) are mounted on shafts carried on an annulus surrounding the sun gear, and the shafts are biased radially outwardly; characterized in that the annulus is divided into a number of annular sectors, each pair of neighbouring sectors having radial end faces which face each other, and the radial end faces being biased away from each other.
A rail system for a sliding door system having at least one first and second door leave, comprising several profile rails, wherein the door leaves are each guidable on at least one of the profile rails, wherein the profile rails are arranged on a first rail element extending in the longitudinal direction of the rail system and extend parallel to each other in the longitudinal direction of the rail system, wherein the first rail element is connected to a second rail element extending in the longitudinal direction of the rail system, wherein the first rail element has a first main body from which the profile rails (#13) protrude, and wherein the second rail element has a second main body, characterized in that the first main body of the first rail element is arranged horizontally in a direction transverse to the longitudinal direction of the rail system, that the second main body of the second rail element has a surface facing the first main body and being at least partially arranged in an inclined manner in a direction transverse to the longitudinal direction of the rail system, and that several fastening elements are arranged between the first and the second rail element (15, 21), wherein the first rail element rests with the first main body on the fastening elements and the fastening elements rest on the surface of the second main body of the second rail element.
A cosmetic or dermatological composition comprising as an active ingredient retinaldehyde and glycylglycine oleamide and at least one cosmetically or dermatologically acceptable carrier, for use as a dermatological drug for treating skin diseases in connection with a deficiency in the physiological reserves of the skin in vitamin A.
A method performed by at least one computer processor executing computer program instructions stored on at least one non-transitory computer-readable medium, the method comprising: receiving information about a plurality of incoming communications (208a-e), over a network, to a computer (202a-d); receiving information about a plurality of outgoing communications (208a-e), over a network, from the computer (202a-d); identifying, for each of the plurality of incoming communications (208a-e), a corresponding invariant scalar quantity based on the received information about the plurality of incoming communications; identifying, for each of the plurality of outgoing communications (208a-e), a corresponding invariant scalar quantity based on the received information about the plurality of outgoing communications; determining whether a sum of the corresponding invariant scalar quantities for each of the plurality of incoming communications (208a-e) is equal to a sum of the corresponding invariant scalar quantities for each of the plurality of outgoing communications (208a-e); if the sum of the corresponding invariant scalar quantities for each of the plurality of incoming communications (208a-e) is determined to be equal to the sum of the corresponding invariant scalar quantities for each of the plurality of outgoing communications (208a-e), then determining that the computer is a load balancer; and otherwise, determining that the computer is not a load balancer; wherein the scalar invariant quantity corresponding to each of the plurality of incoming communications (208a-e) comprises a size of a payload of the incoming communication and the scalar invariant quantity corresponding to each of the plurality of outgoing communications (208a-e) comprises a size of a payload of the outgoing communication. receiving information about a plurality of incoming communications (208a-e), over a network, to a computer (202a-d); receiving information about a plurality of outgoing communications (208a-e), over a network, from the computer (202a-d); identifying, for each of the plurality of incoming communications (208a-e), a corresponding invariant scalar quantity based on the received information about the plurality of incoming communications; identifying, for each of the plurality of outgoing communications (208a-e), a corresponding invariant scalar quantity based on the received information about the plurality of outgoing communications; determining whether a sum of the corresponding invariant scalar quantities for each of the plurality of incoming communications (208a-e) is equal to a sum of the corresponding invariant scalar quantities for each of the plurality of outgoing communications (208a-e); if the sum of the corresponding invariant scalar quantities for each of the plurality of incoming communications (208a-e) is determined to be equal to the sum of the corresponding invariant scalar quantities for each of the plurality of outgoing communications (208a-e), then determining that the computer is a load balancer; and otherwise, determining that the computer is not a load balancer;
An article of footwear, comprising: a sole structure including a side portion (156, 158), a lower portion and a lower periphery (164, 168) disposed between the side portion (156, 158) and the lower portion; a first slot disposed on a lateral side portion and extending from an outer lateral surface of the lateral side portion to a central portion of the sole structure and a second slot disposed on a medial side portion and extending from an outer medial surface of the medial side portion to the central portion, the first and second slots (211, 212) having end portions (322, 325) disposed adjacent to the lower periphery (164, 168), respectively; a third slot disposed in the lower portion having an end portion (323, 324) disposed adjacent to the lower periphery (164, 168); connecting portions (232, 233) extending from the central portion to the lower periphery (164, 168) and separating the first and second slots (211, 212) from the third slot; connecting portions (231, 234) extending from the central portion to an upper periphery (162, 166) and bounding an upper portion of the first and second slots (211, 212), wherein the connecting portions (231, 234) bounding the upper portions of the first and second slots (211, 212) and the connecting portions (232, 233) separating the first and second slots (211, 212) from the third slot are arranged in a X-like configuration. a sole structure including a side portion (156, 158), a lower portion and a lower periphery (164, 168) disposed between the side portion (156, 158) and the lower portion; a first slot disposed on a lateral side portion and extending from an outer lateral surface of the lateral side portion to a central portion of the sole structure and a second slot disposed on a medial side portion and extending from an outer medial surface of the medial side portion to the central portion, the first and second slots (211, 212) having end portions (322, 325) disposed adjacent to the lower periphery (164, 168), respectively; a third slot disposed in the lower portion having an end portion (323, 324) disposed adjacent to the lower periphery (164, 168); connecting portions (232, 233) extending from the central portion to the lower periphery (164, 168) and separating the first and second slots (211, 212) from the third slot; connecting portions (231, 234) extending from the central portion to an upper periphery (162, 166) and bounding an upper portion of the first and second slots (211, 212),
An additive fabrication apparatus comprising: a plate for holding an object (5,82,85); a foil; an applicator arranged for applying a layer of build material to the foil; a source of radiation capable of delivering radiation to a build area, whereby radiation delivered to the layer of build material positioned in the build area forms a newly hardened layer of the object (5,82,85); and a separator arranged to separate the foil and the newly hardened layer comprising a foil orientation adjustment device arranged to adjust the orientation between the foil and the plate; wherein the foil orientation adjustment device is engaged such that the foil is positioned substantially parallel to the plate at a first position in the build area and positioned at an out-of-plane orientation from the plate at a second position in the build area, and wherein the foil orientation adjustment device comprises an angle adjustment device that is adjustable to effectuate a change in the angle between the foil and the plate. a plate for holding an object (5,82,85); a foil; an applicator arranged for applying a layer of build material to the foil; a source of radiation capable of delivering radiation to a build area, whereby radiation delivered to the layer of build material positioned in the build area forms a newly hardened layer of the object (5,82,85); and a separator arranged to separate the foil and the newly hardened layer comprising a foil orientation adjustment device arranged to adjust the orientation between the foil and the plate;
A computer-implemented method comprising: receiving (502; 504), at a server, input data to initiate provisioning of an unprovisioned resource; sending, by the server, provisioning data to the unprovisioned resource to enable presentation of a given provisioning object at the unprovisioned resource; sending, by the server, user data to a registered client to enable an interactive presentation of a plurality of provisioning objects, which includes the given provisioning object, with respect to the registered client, the registered client being pre-associated with a registered user account that is independent from the unprovisioned resource prior to associating the unprovisioned resource with the registered user account; associating, by the server, the unprovisioned resource with the registered user account in response to receiving a user input from the registered client selecting the given provisioning object from the plurality of provisioning objects.
A battery pack, comprising a battery pack cavity and a plurality of battery cells (5, 6) received in the battery pack cavity, wherein an interior space of the battery pack cavity is divided into a first region with a temperature change rate of K1 and a second region with a temperature change rate of K2, where 0.066≤K1≤0.131 and 0.034≤K2<0.066, K1 and K2 being expressed in °C/min; the plurality of battery cells (5, 6) comprises: at least one first battery cell arranged in the first region; and at least one second battery cell arranged in the second region; and the full discharge energies of the first battery cell and the second battery cell when standing at 25°C are E 1 and E 2 respectively and the full discharge energies of the first battery cell and the second battery cell when standing at -20°C are E 1 ' and E 2 ' respectively, E 1, E 2, E 1 ', and E 2 ' being expressed in Wh, wherein 1.05≤E 1 /E 2 ≤1.45, and 0.97≤E 1 '/E 2 '≤1.41. wherein an interior space of the battery pack cavity is divided into a first region with a temperature change rate of K1 and a second region with a temperature change rate of K2, where 0.066≤K1≤0.131 and 0.034≤K2<0.066, K1 and K2 being expressed in °C/min; the plurality of battery cells (5, 6) comprises: at least one first battery cell arranged in the first region; and at least one second battery cell arranged in the second region; and the full discharge energies of the first battery cell and the second battery cell when standing at 25°C are E 1 and E 2 respectively and the full discharge energies of the first battery cell and the second battery cell when standing at -20°C are E 1 ' and E 2 ' respectively, E 1, E 2, E 1 ', and E 2 ' being expressed in Wh, wherein 1.05≤E 1 /E 2 ≤1.45, and 0.97≤E 1 '/E 2 '≤1.41.