mhurhangee/patent-ind-claim-en huggingface dataset:
A device for converting mechanical energy into electric energy for a system, preferably a flooring system, wherein the device comprises: a first magnet and a second magnet , wherein the first magnet is arranged at a predetermined distance from the second magnet and in a manner movable in the direction of the second magnet , and wherein the same poles of the first magnet and the second magnet are aligned with each other; a first coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the first coil are wound in substantially parallel planes, wherein the first coil receives the first magnet in its inner space during a movement in the direction of the second magnet and generates a corresponding induction voltage; a second coil having a predetermined number of windings and an inner space formed by the windings, characterized in that the windings of the second coil are contained substantially in a surface being perpendicular with respect to the first coil , wherein the second coil is arranged at a predetermined distance from the first coil in the direction of the second magnet , wherein the second coil is arranged at least partially around the second magnet and generates a voltage when the first magnet moves in the direction of the second magnet . a first magnet and a second magnet , wherein the first magnet is arranged at a predetermined distance from the second magnet and in a manner movable in the direction of the second magnet , and wherein the same poles of the first magnet and the second magnet are aligned with each other; a first coil having a predetermined number of windings and an inner space formed by the windings, wherein the windings of the first coil are wound in substantially parallel planes, wherein the first coil receives the first magnet in its inner space during a movement in the direction of the second magnet and generates a corresponding induction voltage; a second coil having a predetermined number of windings and an inner space formed by the windings, characterized in that the windings of the second coil are contained substantially in a surface being perpendicular with respect to the first coil , wherein the second coil is arranged at a predetermined distance from the first coil in the direction of the second magnet , wherein the second coil is arranged at least partially around the second magnet and generates a voltage when the first magnet moves in the direction of the second magnet .
A method performed by a restoration proxy host, RPH, for restoring virtual machines, comprising: receiving, from an administrator client , a restoration request comprising a virtual machine identifier, ID, and a target host ID; in response to receiving the restoration request: obtaining stored primary connection information, PCI; establishing a first connection to a central management service, CMS, using the PCI; maintaining a keep-alive status, KAS, describing a validity state of the first connection; and restoring a virtual machine associated with the virtual machine ID, on a target virtual machine host, VMH, (108A ... 108N) associated with the target host ID, based on the KAS, wherein restoring comprises: establishing a second connection to the target VMH (108A ... 108N), wherein the second connection is an indirect connection in that it is established through the CMS ; and in a case where the CMS is unreachable, establishing a third connection to the target VMH (108A ... 108N), wherein the third connection is a direct connection in that it bypasses the CMS , and continuing to restore the virtual machine via the third connection. receiving, from an administrator client , a restoration request comprising a virtual machine identifier, ID, and a target host ID; in response to receiving the restoration request: obtaining stored primary connection information, PCI; establishing a first connection to a central management service, CMS, using the PCI; maintaining a keep-alive status, KAS, describing a validity state of the first connection; and restoring a virtual machine associated with the virtual machine ID, on a target virtual machine host, VMH, (108A ... 108N) associated with the target host ID, based on the KAS, obtaining stored primary connection information, PCI; establishing a first connection to a central management service, CMS, using the PCI; maintaining a keep-alive status, KAS, describing a validity state of the first connection; and restoring a virtual machine associated with the virtual machine ID, on a target virtual machine host, VMH, (108A ... 108N) associated with the target host ID, based on the KAS, wherein restoring comprises: establishing a second connection to the target VMH (108A ... 108N), wherein the second connection is an indirect connection in that it is established through the CMS ; and in a case where the CMS is unreachable, establishing a third connection to the target VMH (108A ... 108N), wherein the third connection is a direct connection in that it bypasses the CMS , and continuing to restore the virtual machine via the third connection. establishing a second connection to the target VMH (108A ... 108N), wherein the second connection is an indirect connection in that it is established through the CMS ; and in a case where the CMS is unreachable, establishing a third connection to the target VMH (108A ... 108N), wherein the third connection is a direct connection in that it bypasses the CMS , and continuing to restore the virtual machine via the third connection.
Power supply device (SV1; SV2; SV3; SV3'; SV4; SV5; SV6; SV7) for supplying a direct current to a plurality of loads (FE, FE1, ..., FEn), the loads (FE; FE1, ..., FEn) being control and safety technology components and each comprising a logic unit or a processor, the power supply device having a first energy bus which comprises a successive arrangement of a plurality of loads along a 2-pole bus line and comprises a DC power source (PS1; PS2; PS3) to which the loads can be connected via the bus line, the loads being connected in parallel with the DC power source via the bus line, the bus line (L1; L3) being subdivided into bus segments (BS) by load-bus coupling elements (VBA; VBA1 ... VBAn), at least one of the loads (FE; FE1 ... FEn) being connected to one of the load-bus coupling elements (VBA; VBA1 ... VBAn), each load-bus coupling element (VBA; VBA1 ... VBAn) comprising switching elements (S1, S2) for electrically isolating the bus line (L1; L3) such that each bus coupling element (VBA; VBA1 ... VBAn) can be brought into a basic state and/or into a first operating state in which the bus line (L1; L3) is electrically disconnected by the corresponding load-bus coupling element (VBA; VBA1 .. VBAn), and can be brought into a second operating state in which the bus segments (BS) are electrically connected by the corresponding load-bus coupling element (VBA; VBA1 ... VBAn), characterized in that the power supply device has a second energy bus which comprises a successive arrangement of a plurality of loads along a 2-pole bus line and comprises a DC power source (PS1'; PS2'), and in that , in addition to the bus coupling elements, a bus coupling unit (K) is provided which is designed to selectively couple the first power bus (B1, B2) to the second power bus (B1', B2').
Apparatus for winding and termination of coils wound with at least one electric wire (W) on a core of a dynamo electric machine; the core having a longitudinal axis and a circumferential groove at an axial end (D) of the core for receiving at least a wire on a termination path that extends circumferentially around the longitudinal axis of the core ; said apparatus comprising: a wire dispenser ; the dispenser having a holding structure for passage of the wire and a wire exit from where the wire reaches the core ; means for translating the dispenser with respect to the core during winding or the termination of the leads; wherein the means for translating translates the holding structure along the core for positioning the wire exit adjacent the axial end (D) of the core where the circumferential groove is located; support means for supporting the core ; means for rotating the support means for rotating the core around a rotation axis for winding the core; characterized in that it further comprises: a wire deflector ; support means for the wire deflector positioned adjacent the axial end (D) of the core where the groove is located; at the end (D) the deflector intercepting and aligning the wire with the circumferential groove , wherein the axial end (D) of the core where the circumferential groove is positioned is opposite to axial end (D) of the core where the wire dispenser initially reaches the core before crossing it to wind the coils and in that the support means for the deflector are housed in a portion of the support means of the core . a wire dispenser ; the dispenser having a holding structure for passage of the wire and a wire exit from where the wire reaches the core ; means for translating the dispenser with respect to the core during winding or the termination of the leads; wherein the means for translating translates the holding structure along the core for positioning the wire exit adjacent the axial end (D) of the core where the circumferential groove is located; support means for supporting the core ; means for rotating the support means for rotating the core around a rotation axis for winding the core; a wire deflector ; support means for the wire deflector positioned adjacent the axial end (D) of the core where the groove is located; at the end (D) the deflector intercepting and aligning the wire with the circumferential groove , wherein the axial end (D) of the core where the circumferential groove is positioned is opposite to axial end (D) of the core where the wire dispenser initially reaches the core before crossing it to wind the coils and in that the support means for the deflector are housed in a portion of the support means of the core .
A non-woven fabric with improved weight reduction and sound absorption, wherein a sheath non-woven fabric in which 50 to 80 wt% of an ordinary polyester fiber 1' st filament having a melting point of 255 °C or more is melt-mixed with 20 to 50 wt% of an ordinary polyester fiber 2' nd filament having a melting point of 190 °C or less is bonded on both sides of the core non-woven fabric in which 50 to 90 wt% of a hollow polyester fiber 1 st filament having a melting point of 255 °C or more is melt-mixed with 10 to 50 wt% of an ordinary polyester fiber 2 nd filament having a melting point of 190 °C or less.
A brazing sheet for flux-free brazing, comprising: an outermost surface brazing filler metal layer, consisting of an Al-Si-based alloy comprising 2 to 13% Si in mass%, optionally containing 0.1 to 1.0% Fe and/or 0.01 to 0.5% Bi in mass%, and with Al and inevitable impurities as the residual, and an intermediate brazing filler metal layer consisting of an Al-Si-Mg-based alloy containing 4 to 13% Si and 0.1 to 5.0% Mg in mass%, optionally containing 0.01 to 0.5% Bi in mass%, and with Al and inevitable impurities as the residual the outermost surface brazing filler metal layer and the intermediate brazing filler metal layer are cladded on one side or both sides of a core material, and furthermore, in the outermost surface brazing filler metal layer, the number of Si particles having a circle equivalent diameter of 1.75 μm or more is 10% or more of the number of those having a circle equivalent diameter of 0.8 μm or more, as observed in the direction of the surface layer, wherein the surface of the cladded metal layers is mirror-polished by 0.1 μm abrasive grains, and fully automatic particle analysis is performed using an EPMA (electron probe microanalyzer) in an observation field of 10000 μm 2 (100 μm angle) in the surface direction, and the intermediate brazing filler metal layer contains less than 3000 per 10000 μm 2 of Si particles having a circle equivalent diameter of 0.25 μm or more, as observed in a cross section of the brazing filler metal layer, wherein the cladded metal layers is cut, the cut surface is mirror-polished by 0.1 μm abrasive grains, and then fully automatic particle analysis is performed using an EPMA (electron probe microanalyzer) in an observation field of 10000 μm 2 (10 × 1000 μm) in the intermediate brazing filler metal layer.
A method, comprising: determining, by a computing device, when at least one of a plurality of nodes of a cluster is cut off from other ones of the nodes; identifying, by the computing device, one or more logical unit numbers, LUNs, owned by the at least one of the nodes; and characterized in that the method comprises: adjusting, by the computing device, a fault domain for the identified LUNs from a distributed task set mode, DTM, of operation to a single task set mode, STM, of operation without any communication about the adjustment to, and while maintaining access to the identified LUNs via the at least one of the nodes for, one or more host computing devices interacting with the cluster . determining, by a computing device, when at least one of a plurality of nodes of a cluster is cut off from other ones of the nodes; identifying, by the computing device, one or more logical unit numbers, LUNs, owned by the at least one of the nodes; and characterized in that the method comprises: adjusting, by the computing device, a fault domain for the identified LUNs from a distributed task set mode, DTM, of operation to a single task set mode, STM, of operation without any communication about the adjustment to, and while maintaining access to the identified LUNs via the at least one of the nodes for, one or more host computing devices interacting with the cluster .
A radio terminal (MS1) for use in a radio communication system, the radio terminal comprising: a receiver for receiving a physical downlink control channel signal, and a transmitter for physical uplink shared channel transmission, wherein the physical downlink control channel signal is associated with the physical uplink shared channel transmission and includes control information for encoding a transport block size used for the physical uplink shared channel transmission, a redundancy version used for the physical uplink shared channel transmission, and a new data indicator used for the physical uplink shared channel transmission, and the transport block size and the redundancy version are jointly-encoded in a single field as part of the control information, wherein the control information includes bits that represent one value out of a range of values, and wherein a first subset of one or more of the values is for determination of the transport block size of the physical uplink shared channel transmission, a second subset of one or more of the values, different from the first subset of values, is for determination of the redundancy version for the physical uplink shared channel transmission. a receiver for receiving a physical downlink control channel signal, and a transmitter for physical uplink shared channel transmission, wherein the physical downlink control channel signal is associated with the physical uplink shared channel transmission and includes control information for encoding a transport block size used for the physical uplink shared channel transmission, a redundancy version used for the physical uplink shared channel transmission, and a new data indicator used for the physical uplink shared channel transmission, and the transport block size and the redundancy version are jointly-encoded in a single field as part of the control information, wherein the control information includes bits that represent one value out of a range of values, and wherein a first subset of one or more of the values is for determination of the transport block size of the physical uplink shared channel transmission, a second subset of one or more of the values, different from the first subset of values, is for determination of the redundancy version for the physical uplink shared channel transmission. the transport block size and the redundancy version are jointly-encoded in a single field as part of the control information, wherein the control information includes bits that represent one value out of a range of values, and wherein a first subset of one or more of the values is for determination of the transport block size of the physical uplink shared channel transmission, a second subset of one or more of the values, different from the first subset of values, is for determination of the redundancy version for the physical uplink shared channel transmission.
A method of inducing losses of light at a parasitic wavelength in a fiber laser system , the fiber laser system including a fiber laser source comprising an active signal fiber , said fiber laser source generating light at a signal wavelength different from the parasitic wavelength, the fiber laser source including a passive output fiber located at the end of the fiber laser source, the fiber laser system further including a delivery fiber in contact with the passive output fiber of the fiber laser source and guiding light at parasitic and signal wavelengths, the fiber laser source being configured to provide light at the signal wavelength having an optical intensity sufficient to exceed a threshold for generating light at the parasitic wavelength in a fiber waveguide which includes the active signal fiber , the passive output fiber and the delivery fiber , and a wavelength discriminator, WD , configured to reflect a portion of light at the parasitic wavelength and transmit light at the signal wavelength, the method comprising providing free-space optical communication between the delivery fiber and the WD and between the WD and a surface of a workpiece to be processed, thereby suppressing emission of light at the parasitic wavelength at an output of the fiber laser system , wherein the suppression of the emission of light at the parasitic wavelength includes reflecting a portion of forward propagating light at the parasitic wavelength and light at the parasitic wavelength that is reflected back from the surface of the workpiece . the fiber laser system including a fiber laser source comprising an active signal fiber , said fiber laser source generating light at a signal wavelength different from the parasitic wavelength, the fiber laser source including a passive output fiber located at the end of the fiber laser source, the fiber laser system further including a delivery fiber in contact with the passive output fiber of the fiber laser source and guiding light at parasitic and signal wavelengths, the fiber laser source being configured to provide light at the signal wavelength having an optical intensity sufficient to exceed a threshold for generating light at the parasitic wavelength in a fiber waveguide which includes the active signal fiber , the passive output fiber and the delivery fiber , and a wavelength discriminator, WD , configured to reflect a portion of light at the parasitic wavelength and transmit light at the signal wavelength, the method comprising providing free-space optical communication between the delivery fiber and the WD and between the WD and a surface of a workpiece to be processed, thereby suppressing emission of light at the parasitic wavelength at an output of the fiber laser system , wherein the suppression of the emission of light at the parasitic wavelength includes reflecting a portion of forward propagating light at the parasitic wavelength and light at the parasitic wavelength that is reflected back from the surface of the workpiece .
Method for producing a soldered connection between at least two components , in which method the components are heated for melting a solder in a soldering area , wherein the heating of the soldering area and/or the supply of solder to the soldering area is realized depending on the temperature which is determined by non-contact detection of heat radiation emitted from at least one temperature measurement zone of one of the components , characterized in that the at least one temperature measurement zone is locally heated for increasing its emissivity, wherein the local heating of the at least one temperature measurement zone results in a change in the surface structure thereof.
An isolated nucleotide sequence coding for the protein Iduronate-2-sulfatase (IDS) as set forth in SEQ ID NO: 1, wherein said nucleotide sequence is selected from SEQ ID NO: 5 and SEQ ID NO: 8.
A braking device for a wing of a window, a French door or the like, which can be moved relative to a stationary frame , having a brake strip to be fastened to the wing or to the frame , having an extension arm that can be pivotably mounted on the in each case other component for holding a brake carriage of the braking device guided along the brake strip when the wing is moved, wherein the brake strip has a series of resilient elements for generating a braking force against the brake carriage and the resilient elements are arranged on the side of the brake strip facing away from the brake carriage , characterized in that the resilient elements are formed from individual tongues and that the tongues are inclined relative to the direction of movement of the brake carriage .
Control valve , comprising a valve housing with a valve inlet and valve outlet (12-1, 12-2) and a valve cover , a valve seat that is fixed to the housing and arranged in the flow channel between the valve inlet and valve outlet (12-1, 12-2), a valve member that is designed to complement the valve seat , and a drive rod which passes through the housing cover in a sealing manner and which is used to connect the valve member to a drive located on the outside of the housing, which valve cover comprises a sealing arrangement which is used to seal the drive rod with respect to the valve cover , characterized in that the valve seat and/or the valve member are/is made of an aerogel material or are/is coated with an aerogel coating.
A medical device for treating an aneurysm, comprising: a tubular member comprising a plurality of braided filaments that form a sidewall and a plurality of pores in the sidewall that are sized to inhibit flow of blood through the sidewall into an aneurysm to a degree sufficient to lead to thrombosis and healing of the aneurysm when the tubular member is positioned in a blood vessel and adjacent to the aneurysm; and an anti-thrombogenic material comprising an anti-thrombogenic polymer distributed over the tubular member such that the pores are substantially free of webs formed by the material, such that webs are present at fewer than 5% of the pores; wherein the pores have an average pore size that is less than or equal to about 500 microns, the tubular member exhibits an elapsed time before peak thrombin formation that is at least 1.5 times the elapsed time of an identical, uncoated tubular member wherein the elapsed time is determined according to the method described in the section named "Method for determining the elapsed time before peak thrombin formation", and wherein the tubular member is expandable to an expanded diameter of 2 millimetres (mm) or more. a tubular member comprising a plurality of braided filaments that form a sidewall and a plurality of pores in the sidewall that are sized to inhibit flow of blood through the sidewall into an aneurysm to a degree sufficient to lead to thrombosis and healing of the aneurysm when the tubular member is positioned in a blood vessel and adjacent to the aneurysm; and an anti-thrombogenic material comprising an anti-thrombogenic polymer distributed over the tubular member such that the pores are substantially free of webs formed by the material, such that webs are present at fewer than 5% of the pores; wherein the pores have an average pore size that is less than or equal to about 500 microns, the tubular member exhibits an elapsed time before peak thrombin formation that is at least 1.5 times the elapsed time of an identical, uncoated tubular member wherein the elapsed time is determined according to the method described in the section named "Method for determining the elapsed time before peak thrombin formation", and wherein the tubular member is expandable to an expanded diameter of 2 millimetres (mm) or more.