mhurhangee/ep-ind-claims huggingface dataset:
A heat insulating protective member comprising an inorganic fiber formed body having a hollow cylindrical shape or a split hollow cylindrical shape, wherein the inorganic fiber formed body has an inner circumferential surface (c) facing a hollow and an outer circumferential surface (a) constituting an outer circumference, the bulk density of the inorganic fiber formed body increases toward the outer circumferential surface (a), wherein the bulk density is determined by measuring the weight of a sample and dividing it by the volume, the inorganic fiber formed body contains an inorganic binder, and the inorganic binder content increases toward the outer circumferential surface (a) from the inner circumferential surface, and the inorganic fiber formed body is an inorganic fiber formed and fired body including inorganic binder particles that bond the inorganic fibers to each other, and the inorganic binder particle content increases toward the outer circumferential surface (a). an inorganic fiber formed body having a hollow cylindrical shape or a split hollow cylindrical shape, wherein the inorganic fiber formed body has an inner circumferential surface (c) facing a hollow and an outer circumferential surface (a) constituting an outer circumference, the bulk density of the inorganic fiber formed body increases toward the outer circumferential surface (a), wherein the bulk density is determined by measuring the weight of a sample and dividing it by the volume, the inorganic fiber formed body contains an inorganic binder, and the inorganic binder content increases toward the outer circumferential surface (a) from the inner circumferential surface, and the inorganic fiber formed body is an inorganic fiber formed and fired body including inorganic binder particles that bond the inorganic fibers to each other, and the inorganic binder particle content increases toward the outer circumferential surface (a).
A method for a network controller (125, 130) that manages first, second, and third networks (105, 110, 115), the method comprising: configuring a first set of managed forwarding elements (135, 140, 150) in the first network to implement a first logical forwarding element that forwards data packets for a first set of machines (162, 164, 170) having addresses in a first address space that is being used by the second network; configuring a second set of managed forwarding elements in the first network to implement a second logical forwarding element that forwards data packets for a second set of machines (166, 168, 172, 174) having addresses in a second address space that is being used by the third network, wherein the first logical forwarding element has a first logical port for the second network and the second logical forwarding element has a second logical port for the third network, wherein at least a first managed forwarding element in the first network belongs to both the first and second sets of managed forwarding elements and thus is configured to implement both the first and second logical forwarding elements (215, 220); and directing the at least one first managed forwarding element to forward a first set of configuration data to a second managed forwarding element in the second network and a second set of configuration data to a third managed forwarding element in the third network without exposing a network address of the network controller (125, 130) to the second and third managed forwarding elements (155, 160). configuring a first set of managed forwarding elements (135, 140, 150) in the first network to implement a first logical forwarding element that forwards data packets for a first set of machines (162, 164, 170) having addresses in a first address space that is being used by the second network; configuring a second set of managed forwarding elements in the first network to implement a second logical forwarding element that forwards data packets for a second set of machines (166, 168, 172, 174) having addresses in a second address space that is being used by the third network, wherein the first logical forwarding element has a first logical port for the second network and the second logical forwarding element has a second logical port for the third network, wherein at least a first managed forwarding element in the first network belongs to both the first and second sets of managed forwarding elements and thus is configured to implement both the first and second logical forwarding elements (215, 220); and directing the at least one first managed forwarding element to forward a first set of configuration data to a second managed forwarding element in the second network and a second set of configuration data to a third managed forwarding element in the third network without exposing a network address of the network controller (125, 130) to the second and third managed forwarding elements (155, 160).
OLED device with improved internal light outcoupling, having an ITO electrode and a hole transport layer, comprising at least one additional thin, porous and transparent metal oxide layer, characterized in that the porous metal oxide layer is inserted as additional intermediate layer between the ITO electrode and the hole transport layer.
A lighting apparatus comprising: a control module supplying an electric power; a heat sink receiving the control module; a light source module mounted on the heat sink and including a light source connected to the control module and a light source coupling part receiving the light source and on which the light source is mounted; and an antenna device disposed on the light source module and connected to the control module, characterized in that the light source coupling part has a coupling hole, and wherein the control module comprises: a communication unit driving the antenna device, a coupling terminal extended from the control module, passing through the coupling hole, protruded toward the antenna device and connecting the communication unit to the antennal device. a control module supplying an electric power; a heat sink receiving the control module; a light source module mounted on the heat sink and including a light source connected to the control module and a light source coupling part receiving the light source and on which the light source is mounted; and an antenna device disposed on the light source module and connected to the control module, characterized in that the light source coupling part has a coupling hole, and wherein the control module comprises: a communication unit driving the antenna device, a coupling terminal extended from the control module, passing through the coupling hole, protruded toward the antenna device and connecting the communication unit to the antennal device. a communication unit driving the antenna device, a coupling terminal extended from the control module, passing through the coupling hole, protruded toward the antenna device and connecting the communication unit to the antennal device.
A drive tool, comprising: a handle; a bit movably coupled to the handle through a mechanism; a plurality of imaging units provisioned on the handle, wherein the plurality of imaging units face a fastener and a fastening surface; characterized by a control unit operatively coupled to the mechanism and the plurality of imaging units, wherein the control unit is configured to: receive data from each of the plurality of imaging units; and operate the mechanism selectively to move the bit for adjusting an axis (A-A) of the fastener perpendicular to the fastening surface, based on the data received from at least one of the plurality of imaging units. a handle; a bit movably coupled to the handle through a mechanism; a plurality of imaging units provisioned on the handle, wherein the plurality of imaging units face a fastener and a fastening surface; characterized by a control unit operatively coupled to the mechanism and the plurality of imaging units, wherein the control unit is configured to: receive data from each of the plurality of imaging units; and operate the mechanism selectively to move the bit for adjusting an axis (A-A) of the fastener perpendicular to the fastening surface, based on the data received from at least one of the plurality of imaging units. receive data from each of the plurality of imaging units; and operate the mechanism selectively to move the bit for adjusting an axis (A-A) of the fastener perpendicular to the fastening surface, based on the data received from at least one of the plurality of imaging units.
A photovoltaic device comprising: a crystalline semiconductor substrate of a first conductive type; a first amorphous semiconductor layer (12i; 16i) which is intrinsic and formed over a first surface of the semiconductor substrate; and a second amorphous semiconductor layer (12p; 16n) of the first conductive type of or a conductive type opposite of the first conductive type and formed over the first amorphous semiconductor layer (12i; 16i), characterized in that the first amorphous semiconductor layer (12i, 16i) has an oxygen concentration profile in which a concentration is reduced in a step-shape from a region near an interface with the semiconductor substrate and along a thickness direction. a crystalline semiconductor substrate of a first conductive type; a first amorphous semiconductor layer (12i; 16i) which is intrinsic and formed over a first surface of the semiconductor substrate; and a second amorphous semiconductor layer (12p; 16n) of the first conductive type of or a conductive type opposite of the first conductive type and formed over the first amorphous semiconductor layer (12i; 16i), characterized in that the first amorphous semiconductor layer (12i, 16i) has an oxygen concentration profile in which a concentration is reduced in a step-shape from a region near an interface with the semiconductor substrate and along a thickness direction.
A topical composition comprising at least one cellular autophagy activator that is a yeast extract from the Candida genus and at least one DNA repair enzyme comprising Arabidopsis Thaliana extract either alone or in admixture with lecithin and water.
A device comprising a capacitor comprising at least two primary electrodes, at least one dielectric layer of a dielectric material, at least one additional electrode for controlling polarization and dielectric permittivity of the dielectric material by exciting with at least an excitation frequency of the dielectric material, and a component protection module comprising an output modulator which supplies an output modulation signal to the additional electrode based on discharging current information and based on the exciting frequency. at least two primary electrodes, at least one dielectric layer of a dielectric material, at least one additional electrode for controlling polarization and dielectric permittivity of the dielectric material by exciting with at least an excitation frequency of the dielectric material, and a component protection module comprising an output modulator which supplies an output modulation signal to the additional electrode based on discharging current information and based on the exciting frequency.
An apparatus for producing objects from a solidifying moulding compound, comprising: - a feed region with at least one sprue point for supplying the moulding compound, and - a mould insert, which delimits at least in part a cavity, in which the moulding compound supplied via the sprue point can be received, wherein the cavity comprises at least one object moulding region, which moulds the object that is to be produced, and at least one distribution region, which is adapted to direct supplied moulding compound to the object moulding region, and further comprising at least one pusher device which, in a first position, is adapted to allow connection of the object moulding region and the distribution region and, in a second position, to separate the object moulding region and the distribution region from each other, wherein the mould insert is movable relative to the feed region along a movement axis, wherein the pusher device is acuatable according to the relative movement, and wherein the apparatus is characterised in that it comprises a plurality of distribution regionas each with a pusher device. - a feed region with at least one sprue point for supplying the moulding compound, and - a mould insert, which delimits at least in part a cavity, in which the moulding compound supplied via the sprue point can be received, wherein the cavity comprises at least one object moulding region, which moulds the object that is to be produced, and at least one distribution region, which is adapted to direct supplied moulding compound to the object moulding region, and further comprising at least one pusher device which, in a first position, is adapted to allow connection of the object moulding region and the distribution region and, in a second position, to separate the object moulding region and the distribution region from each other, wherein the mould insert is movable relative to the feed region along a movement axis, wherein the pusher device is acuatable according to the relative movement, and wherein the apparatus is characterised in that it comprises a plurality of distribution regionas each with a pusher device.
A method performed by a wireless device for radio access technology, RAT, dependent positioning in a wireless communication network, the method comprising: receiving, from a network node, assistance data that assists the wireless device with RAT-dependent positioning, wherein the assistance data is based on device-specific information that includes a level of a subscription associated with the wireless device and wherein subscriptions to the wireless communication network have different possible levels and the assistance data includes cell-specific information for one or more cells, clusters of cells, or zones of clusters wherein, for each of the one or more cells, the clusters of cells, or the zones of clusters, the cell-specific information includes a real-time difference between the cell and each of one or more others of the one or more cells, the clusters of cells, or the zones of clusters, wherein the assistance data only includes real-time difference information if the level of the subscription is higher than a threshold level; and performing the RAT-dependent positioning based on assistance from the assistance data.
A ceramic material comprising α- and β-SiAlON phases as well as an intergranular phase, wherein the intergranular phase comprises crystalline nitrogen-rich oxynitride comprising melilite, and (a) the α-SiAlON phase having the general formula M x Si 12-m-n Al m+n O n N 16-n, wherein 0 < x < 2 and M is a multi-cationic mixture including (i) the element calcium; (ii) at least one of Dysprosium and/or Erbium, (iii) the element Samarium, (b) the β-SiAlON phase having the general formula Si 6-z Al z O z N 8-z, wherein 0 < z <4.2; (c) the intergranular phase, mainly crystalline nature, containing in addition to the elements Si, Al, O and N, (i) the element calcium; (ii) at least one of-Dysprosium and-/or Erbium, (iii) the element Samarium, (a) the α-SiAlON phase having the general formula M x Si 12-m-n Al m+n O n N 16-n, wherein 0 < x < 2 and M is a multi-cationic mixture including (i) the element calcium; (ii) at least one of Dysprosium and/or Erbium, (iii) the element Samarium, (i) the element calcium; (ii) at least one of Dysprosium and/or Erbium, (iii) the element Samarium, (b) the β-SiAlON phase having the general formula Si 6-z Al z O z N 8-z, wherein 0 < z <4.2; (c) the intergranular phase, mainly crystalline nature, containing in addition to the elements Si, Al, O and N, (i) the element calcium; (ii) at least one of-Dysprosium and-/or Erbium, (iii) the element Samarium, (i) the element calcium; (ii) at least one of-Dysprosium and-/or Erbium, (iii) the element Samarium,
A boom mounting assembly for attachment to an agricultural machine, comprising - a primary frame; - a boom support frame configured to support a boom and suspended from the primary frame such that the boom support frame can pivot in a transverse plane around a longitudinal axis of rotation provided in a pivot point; - a first sub-frame member (22; 23; 24) provided on the primary frame or the boom support frame; and - a first roller member (25; 26; 27), the first roller member (25; 26; 27) rotatable around a first roller axis of rotation (25b; 26b; 27b) provided on the first sub-frame member (22; 23; 24), and a running surface of the first roller member (25; 26; 27) configured to rest detachably against at least one of the primary frame, the boom support frame, and a boom section of the boom; characterized in that the first sub-frame member (22; 23; 24) is rotatable jointly with the first roller axis of rotation (25b; 26b; 27b) and the first roller member (25; 26; 27) around a first sub-frame axis of rotation (22a; 23a; 24a) which is extending transversely to the first roller axis of rotation (25b; 26b; 27b). - a primary frame; - a boom support frame configured to support a boom and suspended from the primary frame such that the boom support frame can pivot in a transverse plane around a longitudinal axis of rotation provided in a pivot point; - a first sub-frame member (22; 23; 24) provided on the primary frame or the boom support frame; and - a first roller member (25; 26; 27), the first roller member (25; 26; 27) rotatable around a first roller axis of rotation (25b; 26b; 27b) provided on the first sub-frame member (22; 23; 24), and a running surface of the first roller member (25; 26; 27) configured to rest detachably against at least one of the primary frame, the boom support frame, and a boom section of the boom;
A surgical hub (2106, 2236) for use with a surgical system in a surgical procedure performed in an operating room, the surgical hub comprising: a control circuit configured to: communicably couple to at least one surgical device in the operating room; receive visualization data from a camera; determine potential surgical locations based on the visualization data; receive user characteristics; and determine a device placement selected from the potential surgical locations based on at least the user characteristics. communicably couple to at least one surgical device in the operating room; receive visualization data from a camera; determine potential surgical locations based on the visualization data; receive user characteristics; and determine a device placement selected from the potential surgical locations based on at least the user characteristics.
A fiber sensor characterized by comprising: a light source; an optical fiber (30, 30d) having flexibility that guides light emitted from the light source comprising a plurality of light characteristics conversion portions (54a, 54b, 54c), the light characteristics conversion portions (54a, 54b, 54c) being provided at different positions on the optical fiber (30, 30d) in a longitudinal direction thereof; a light-receiving unit that receives the light guided by the optical fiber (30, 30d); characterized in that the optical fiber (30, 30d) further comprises a plurality of identification units (64a, 64b, 64c), wherein the identification portions (64a, 64b, 64c) are each provided at different positions on the outer periphery of the optical fiber (30, 30d) in a longitudinal direction, and each one of the identification portions (64a, 64b, 64c) comprises the corresponding one of the light characteristics conversion portions (54a, 54b, 54c), respectively, the identification units (64a, 64b, 64c) each having a different cross-sectional shape on an outer peripheral surface of the optical fiber (30, 30d), wherein each of the cross-sectional shapes of the identification units (64a, 64b, 64c) is formed to enable identification of at least one of an installation position and posture of the light characteristics conversion portions (54a, 54b, 54c) provided on the optical fiber (30, 30d). a light source; an optical fiber (30, 30d) having flexibility that guides light emitted from the light source comprising a plurality of light characteristics conversion portions (54a, 54b, 54c), the light characteristics conversion portions (54a, 54b, 54c) being provided at different positions on the optical fiber (30, 30d) in a longitudinal direction thereof; a light-receiving unit that receives the light guided by the optical fiber (30, 30d); characterized in that the optical fiber (30, 30d) further comprises a plurality of identification units (64a, 64b, 64c), wherein the identification portions (64a, 64b, 64c) are each provided at different positions on the outer periphery of the optical fiber (30, 30d) in a longitudinal direction, and each one of the identification portions (64a, 64b, 64c) comprises the corresponding one of the light characteristics conversion portions (54a, 54b, 54c), respectively, the identification units (64a, 64b, 64c) each having a different cross-sectional shape on an outer peripheral surface of the optical fiber (30, 30d), wherein each of the cross-sectional shapes of the identification units (64a, 64b, 64c) is formed to enable identification of at least one of an installation position and posture of the light characteristics conversion portions (54a, 54b, 54c) provided on the optical fiber (30, 30d).
A system with at least two cleaning devices (1, 2), wherein at least one of the cleaning devices (1, 2) can be displaced relative to another cleaning device (2, 1), wherein the cleaning devices (1, 2) each have a communications link to a shared controller (3, 4), wherein the controller (3, 4) is a central controller of the system formed outside of the cleaning devices (1, 2), to which the cleaning devices (1, 2) are registered, characterized in that the central controller is available even when the cleaning devices (1,2) are turned off, wherein the controller (3, 4) is further more set up to transmit a service request to the second cleaning device and/or to a user of the second cleaning device, depending on the service required by a device component of a first cleaning device, and depending on the service availability status of a second cleaning device.