mhurhangee/ep-ind-claims huggingface dataset:
A vibration barrel polishing method using a vibration barrel polishing system that includes a polishing tank having a bottom surface therein, a rotating shaft configured to rotate so as to vibrate the polishing tank and a polishing jig capable of holding a workpiece and rotatable around a rotation axis which extends in a direction parallel to the rotating shaft, a positioning unit configured to change a position of the polishing jig in a height direction, a rotating unit configured to rotate the polishing jig around the rotation axis, and a moving unit configured to move the positioning unit and the rotating unit in a horizontal direction, the vibration barrel polishing method comprising steps of: moving the positioning unit and the rotating unit in the horizontal direction so that the polishing jig is located above the polishing tank; supporting the polishing jig in the polishing tank in a state in which a lowermost portion of the polishing jig is separated from the bottom surface, a clearance d between the lowermost portion of the polishing jig and the bottom surface being greater than or equal to a grain diameter of a polishing medium; causing the polishing medium to flow in the polishing tank; and rotating the polishing jig around the rotation axis in the state in which the lowermost portion of the polishing jig is separated from the bottom surface, wherein the clearance d is (H1 + H2)/4 or less, wherein H1 represents a maximum height of a surface of the polishing medium flowing in the polishing tank with respect to the bottom surface and H2 represents a minimum height thereof in a cross-sectional view along a plane orthogonal to the rotation axis and passing through a center of the bottom surface. moving the positioning unit and the rotating unit in the horizontal direction so that the polishing jig is located above the polishing tank; supporting the polishing jig in the polishing tank in a state in which a lowermost portion of the polishing jig is separated from the bottom surface, a clearance d between the lowermost portion of the polishing jig and the bottom surface being greater than or equal to a grain diameter of a polishing medium; causing the polishing medium to flow in the polishing tank; and rotating the polishing jig around the rotation axis in the state in which the lowermost portion of the polishing jig is separated from the bottom surface, wherein the clearance d is (H1 + H2)/4 or less, wherein H1 represents a maximum height of a surface of the polishing medium flowing in the polishing tank with respect to the bottom surface and H2 represents a minimum height thereof in a cross-sectional view along a plane orthogonal to the rotation axis and passing through a center of the bottom surface.
Ankle joint orthosis, designed to immobilize the ankle joint, comprising a one-piece stabilizing element with a heel portion receiving the heel in the position of use, a side portion which adjoins the heel portion, and a calf portion which adjoins the side portion and engages around the rear of the calf, wherein one or more first connector elements are provided on the outside of the stabilizing element, characterized by a knitted part which is knitted in a shape adapted to the anatomy of the leg and foot in the area of the ankle joint and which, in the position of use, completely encloses the ankle joint and the adjoining areas of the leg and foot, and which can be opened or widened in some areas in order to fit it in place and, in the position of use, can be drawn together and tightened by tightening means, wherein one or more second connector elements are provided on the inside of the knitted part, in such a way that the stabilizing element, which is insertable into the knitted part, and the side portion of which extends along the side of the ankle joint, can be fixed releasably in the knitted part by connection of the one or more first connector elements to the one or more second connector elements.
Method for securing at least one memory zone of an electronic device comprising the following steps: • detecting a deallocation of at least one portion of said memory zone, called a deallocated portion; • replacing at least one part of said deallocated portion with at least one predetermined instruction, called an alert instruction, or at least one combination of predetermined instructions, called a combination of alert instructions; • marking said deallocated portion. • detecting a deallocation of at least one portion of said memory zone, called a deallocated portion; • replacing at least one part of said deallocated portion with at least one predetermined instruction, called an alert instruction, or at least one combination of predetermined instructions, called a combination of alert instructions; • marking said deallocated portion.
A flow measurement system, comprising: a vibrating flow meter, including: at least one flow tube; a driver adapted to apply a biasing force on the flow tube; and a meter electronics configured to generate a drive signal and apply the drive signal to the driver to vibrate the flow tube; characterized in that the drive signal vibrates the flow tube about a first deflected position between a flow tube rest position, the first deflected position, and a second deflected position, wherein the first deflected position is offset from the flow tube rest position, and wherein the first deflected position is between the flow tube rest position and the second deflected position. a vibrating flow meter, including: at least one flow tube; a driver adapted to apply a biasing force on the flow tube; and at least one flow tube; a driver adapted to apply a biasing force on the flow tube; and a meter electronics configured to generate a drive signal and apply the drive signal to the driver to vibrate the flow tube;
An air filter cartridge comprising: (a) a media pack having upstream and downstream opposite flow faces (324,326) and first and second opposite sides (328, 329) extending between the upstream and downstream opposite flow faces (324, 326); the media pack further includes third and fourth opposite sides (330, 331) extending between the upstream and downstream opposite flow faces (324, 326); (b) a first side panel against the first side of the media pack; a second side panel against the second side of the media pack; a third side panel against the third side of the media pack; and a fourth side panel against the fourth side of the media pack, and (c) a gasket arrangement including: (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face; and (ii) a side gasket member, integral with the perimeter gasket member, and adjacent to at least a partial extension of the first side panel; characterized in that the side gasket member includes no portion against the second, third, and fourth side panel; the second side panel, the third side panel, and the fourth side panel being gasket-free. (a) a media pack having upstream and downstream opposite flow faces (324,326) and first and second opposite sides (328, 329) extending between the upstream and downstream opposite flow faces (324, 326); the media pack further includes third and fourth opposite sides (330, 331) extending between the upstream and downstream opposite flow faces (324, 326); (b) a first side panel against the first side of the media pack; a second side panel against the second side of the media pack; a third side panel against the third side of the media pack; and a fourth side panel against the fourth side of the media pack, and (c) a gasket arrangement including: (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face; and (ii) a side gasket member, integral with the perimeter gasket member, and adjacent to at least a partial extension of the first side panel; (i) a perimeter gasket member against the downstream flow face and around a perimeter of the downstream flow face; and (ii) a side gasket member, integral with the perimeter gasket member, and adjacent to at least a partial extension of the first side panel;
Cam assembly of a flat knitting machine with a forerunning and trailing knitting system (S1, S2), wherein the forerunning knitting system comprises drive-out means for driving out a first number of selected needles (N 1) and the trailing knitting system comprises first selection means for selecting a second number of needles (N 2) from the first number of needles (N 1) driven out, as well as a drive-out means for driving out the second number of needles (N 2) and a retraction assembly part for retracting all needles participating in the knitting process, which means the first number of selected needles (N 1), to stitch cam level, wherein the trailing knitting system also comprises second selection means for selecting a third number of needles (N 3) from the first number of needles (N 1) driven out, which are not part of the second number of needles (N 2), wherein no drive-out means, or only those drive-out means are provided in the trailing knitting system for the third number of needles (N 3), which do not drive out the third number needles (N 3) so far that these reach a thread insertion position in the trailing knitting system, characterised in that a bridging part is located between the knitting systems (S1, S2), which initially holds the first number of needles (N 1) in a thread insertion position after insertion of a binding thread and then extracts these to a position above the ridge level.
A switch for routing packets in an interconnection network, the switch comprising: a plurality of egress ports to transmit packets; one or more ingress ports to receive packets; a network capacity circuit configured to obtain network capacity for transmitting packets via the plurality of egress ports; a port sequence generation circuit configured to generate a port sequence that defines a pseudo-randomly interleaved sequence of a plurality of path options via the plurality of egress ports, based on the network capacity; and a routing circuit configured to route one or more packets, received from the one or more ingress ports, towards a destination, based on the port sequence; wherein the port sequence generation circuit is configured to: generate a plurality of port sequences, wherein each port sequence defines a pseudo-randomly interleaved sequence of the plurality of path options, via the plurality of egress ports, according to the network capacity, and wherein each port sequence corresponds to a respective next switch of a plurality of next switches. a plurality of egress ports to transmit packets; one or more ingress ports to receive packets; a network capacity circuit configured to obtain network capacity for transmitting packets via the plurality of egress ports; a port sequence generation circuit configured to generate a port sequence that defines a pseudo-randomly interleaved sequence of a plurality of path options via the plurality of egress ports, based on the network capacity; and a routing circuit configured to route one or more packets, received from the one or more ingress ports, towards a destination, based on the port sequence; wherein the port sequence generation circuit is configured to: generate a plurality of port sequences, wherein each port sequence defines a pseudo-randomly interleaved sequence of the plurality of path options, via the plurality of egress ports, according to the network capacity, and wherein each port sequence corresponds to a respective next switch of a plurality of next switches.
A communication apparatus (300, 400, 600) comprising: receiving sections (142, 152) configured to receive a plurality of data transmitted from a plurality of antennas of a communicating party; generating sections (144, 154) configured to perform channel quality estimation and to generate a CQI of each of the plurality of antennas of the communicating party; a modulating and encoding section configured to modulate and encode transmission data including the CQI; and a transmitting unit configured to transmit the transmission data to the communicating party; characterized in that a comparing section configured to compare a difference between the generated CQIs for the plurality of antennas with a predetermined value and generate, based on the comparison result, information indicating whether or not the generated CQIs correspond to the number of the plurality of antennas; a controlling section (320, 420, 620) configured to control a transmission of the CQI of each of the plurality of antennas corresponding to the information such that, when the difference is less than the predetermined value, the CQI is transmitted for less antennas than the number of the plurality of antennas; and said transmitting unit transmits, to the communicating party, the information and the CQI of each of the plurality of antennas corresponding to the information included in the transmission data. receiving sections (142, 152) configured to receive a plurality of data transmitted from a plurality of antennas of a communicating party; generating sections (144, 154) configured to perform channel quality estimation and to generate a CQI of each of the plurality of antennas of the communicating party; a modulating and encoding section configured to modulate and encode transmission data including the CQI; and a transmitting unit configured to transmit the transmission data to the communicating party; characterized in that a comparing section configured to compare a difference between the generated CQIs for the plurality of antennas with a predetermined value and generate, based on the comparison result, information indicating whether or not the generated CQIs correspond to the number of the plurality of antennas; a controlling section (320, 420, 620) configured to control a transmission of the CQI of each of the plurality of antennas corresponding to the information such that, when the difference is less than the predetermined value, the CQI is transmitted for less antennas than the number of the plurality of antennas; and said transmitting unit transmits, to the communicating party, the information and the CQI of each of the plurality of antennas corresponding to the information included in the transmission data.
Carrier structure (100, 200) for assembling a semiconductor lighting module, comprising at least two sub carriers (110, 210) and an alignment structure (120, 130, 230, 232) mechanically coupling the sub carriers (110, 210), the alignment structure (120, 130, 230, 232) being adapted such that the mechanical coupling to at least a part of the sub carriers (110, 210) disappears during thermal mating the carrier structure (100, 200) on a carrier, wherein the alignment structure (120, 130, 230, 232) is further adapted to allow for the coefficient of thermal expansion of a material of the carrier being higher than the coefficient of thermal expansion of a material of the carrier structure (100, 200) by the sub carriers (110, 210) being enabled to approach each other during a cooling phase of thermal mating; characterized in that the sub carriers are submounts for mounting semiconductor light sources, and the alignment structure (120, 130) comprises at least one first frame structure and at least one bridge per submount mechanically coupling the submount to the first frame structure such that the submounts are aligned along the first frame structure, and the bridges are adapted to break during thermal mating of the carrier structure to the carrier if thermal stress exerted on the bridges due to said thermal expansion, exceeds a threshold value.
A roofing membrane comprising a blend composition of: (a) from 10 wt% to 50 wt% of a propylene-based elastomer comprising one or more comonomers selected from ethylene and/or C 4 -C 12 α-olefins, where the propylene-based elastomer has a comonomer content of from 5 to 30 wt%, based upon the weight of the propylene-based elastomer, wherein the propylene-based elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component has a comonomer content R 1 of from greater than 5 to less than 30 wt% comonomer, based upon the total weight of the first polymer component, and wherein the second polymer component has a comonomer content R 2 of from greater than 1 to less than 10 wt% comonomer, based upon the total weight of the second polymer component; (b) from 5 wt% to 40 wt% of a thermoplastic resin different from the a propylene-based elastomer; (c) at least one flame retardant; and (d) at least one ultraviolet stabilizer. wherein the blend composition further comprises from 1 wt% to 10 wt% of a polyalphaolefin being oligomers of α-olefins and having a kinematic viscosity at 100°C of from 3 to 3000 cSt, as measured by ASTM D445 at 100°C. (a) from 10 wt% to 50 wt% of a propylene-based elastomer comprising one or more comonomers selected from ethylene and/or C 4 -C 12 α-olefins, where the propylene-based elastomer has a comonomer content of from 5 to 30 wt%, based upon the weight of the propylene-based elastomer, wherein the propylene-based elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component has a comonomer content R 1 of from greater than 5 to less than 30 wt% comonomer, based upon the total weight of the first polymer component, and wherein the second polymer component has a comonomer content R 2 of from greater than 1 to less than 10 wt% comonomer, based upon the total weight of the second polymer component; (b) from 5 wt% to 40 wt% of a thermoplastic resin different from the a propylene-based elastomer; (c) at least one flame retardant; and (d) at least one ultraviolet stabilizer.
Valve shutter adapted for being arranged in a valve body of a valve and extending along a longitudinal axis passing through a passage channel of the valve body, said shutter comprising a main portion made of a non-deformable material and being adapted to be movable within a chamber of said valve body between an open configuration of said valve, where it allows the passage of a fluid through said passage channel, and a closed configuration of said valve, where it prevents the passage of fluid through said passage channel; said valve shutter including a secondary portion adapted to be interposed between said main portion and said passage channel, said secondary portion being made of a deformable and resilient material as to be able to deform progressively in the transition between the open configuration and the closed configuration, and vice versa, as a function of the hydrodynamic pressure of the fluid, in order to determine a gradual variation in time of the fluid passage within the passage channel; wherein said secondary portion includes at least an inner chamber enclosed between the main portion and the secondary portion, said inner chamber having at least a through hole suitable for putting said inner chamber in fluid communication with the chamber of the valve body, said inner chamber being configured to be progressively filled, at least partially, by said fluid during the transition between the closed configuration and the open configuration, and to be progressively emptied during the transition between the open configuration and the closed configuration; characterized in that said inner chamber comprises recesses and/or emerging structures in relief from said secondary portion; and said emerging structures and or said recesses are arranged circumferentially and/or radially about said longitudinal axis, alternating with respective through holes.
A process for recovering product dialkyl succinate, dialkyl maleate or dialkyl succinate and dialkyl maleate from an overhead stream from an esterification reaction column, said overhead stream comprising as a major component alkanol and water and as a minor component the product dialkyl succinate, dialkyl maleate or dialkyl succinate and dialkyl maleate which forms an azeotrope with the water, wherein said process comprises washing the overhead stream with butanol.
An Internet Protocol Multimedia Subsystem Centralized Services Interworking Function, ICS-IWF, for supporting a registration procedure for an inbound roamer user equipment, UE, which has a non- Internet Protocol Multimedia Subsystem / Internet Protocol Subsystem Centralized Services, non- IMS/ ICS, home public land mobile network, HPLMN, in an IMS Centralized Services, ICS, -enabled visited public land mobile network, 'VPLMN', the ICS-IWF comprising: a transceiver and a controller wherein the controller, since the Mobile Switching Center, MSC, of the ICS-enabled VPLMN cannot contact directly a Home Subscriber Server / Home Location Register, HSS/HLR, of the inbound roamer UE non-IMS/ICS -enabled HPLMN, is configured to: control the transceiver to receive, from a serving Call Session Control Function, 'CSCF', of the ICS-enabled VPLMN, a request for authentication information of the inbound roamer UE; retrieve the requested authentication information of the inbound roamer UE from the HSS/HLR of the non-IMS/ICS-enabled HPLMN and control the transceiver to transmit the retrieved authentication information of the inbound roamer UE to the serving CSCF of the ICS-enabled VPLMN for use in said registration procedure of the inbound roamer UE in the ICS-enabled VPLMN. control the transceiver to receive, from a serving Call Session Control Function, 'CSCF', of the ICS-enabled VPLMN, a request for authentication information of the inbound roamer UE; retrieve the requested authentication information of the inbound roamer UE from the HSS/HLR of the non-IMS/ICS-enabled HPLMN and control the transceiver to transmit the retrieved authentication information of the inbound roamer UE to the serving CSCF of the ICS-enabled VPLMN for use in said registration procedure of the inbound roamer UE in the ICS-enabled VPLMN.