mhurhangee/ep-ind-claims huggingface dataset:
A method of a proxy server receiving a request from a client to a webserver and a response corresponding with the request from the webserver to the client, the method comprising: receiving a wrapped request at the proxy server; reading the wrapped request at the proxy server to determine whether the request includes a file download; and adding metadata to a response corresponding with the wrapped request at the proxy server, the metadata including whether the request includes a file download. receiving a wrapped request at the proxy server; reading the wrapped request at the proxy server to determine whether the request includes a file download; and adding metadata to a response corresponding with the wrapped request at the proxy server, the metadata including whether the request includes a file download.
A corrosion inhibiting pigment comprising nanoscale reservoirs (nanoreservoirs) of corrosion inhibitor for active corrosion protection of metallic products and structures, wherein the nanoreservoirs having average dimensions in the range from 1-1000 nm comprise a polymer or polyelectrolyte shell which is sensitive to a specific trigger and capable to release said inhibitor after action of said trigger.
A method for determining a current required to disengage brakes of an elevator car, the method comprising: holding said elevator car stationary by using an electric drive (21,22); engaging one brake; disengaging any other brakes (21, 31); applying momentum to said elevator car for moving said elevator car; increasing current gradually to said engaged brake (25, 32); detecting movement (26, 33) of said elevator car; and storing the value of the current when said movement is detected. holding said elevator car stationary by using an electric drive (21,22); engaging one brake; disengaging any other brakes (21, 31); applying momentum to said elevator car for moving said elevator car; increasing current gradually to said engaged brake (25, 32); detecting movement (26, 33) of said elevator car; and storing the value of the current when said movement is detected.
A multi-layer composite structure comprising: (i) a first fabric layer comprising - a plurality of melt extruded semi-crystalline polyolefin fibers (a) having an elastic modulus, measured according to ASTM D2256-02, of more than 8 GPa and a maximum cross-sectional dimension of less than 100μm, and at least one of the following characteristics: greater than 80% crystallinity according to WAXS measuring techniques, and a ratio of equatorial intensity to meridonal intensity of greater than 1.0 as measured by SAXS techniques; - surface functional groups or surface structures capable of bonding with a polymeric binding agent, wherein the surface functional groups include one or more of the following treatments: i) at least one thermoset resin-reactive group, ii) size, or iii) fibrillations, (ii) a second layer; and (iii) a polymeric binding agent securing layer (i) to layer (ii) wherein said surface treatments of said first layer impart increased bonding strength with said polymeric binding agent. (i) a first fabric layer comprising - a plurality of melt extruded semi-crystalline polyolefin fibers (a) having an elastic modulus, measured according to ASTM D2256-02, of more than 8 GPa and a maximum cross-sectional dimension of less than 100μm, and at least one of the following characteristics: greater than 80% crystallinity according to WAXS measuring techniques, and a ratio of equatorial intensity to meridonal intensity of greater than 1.0 as measured by SAXS techniques; - surface functional groups or surface structures capable of bonding with a polymeric binding agent, wherein the surface functional groups include one or more of the following treatments: i) at least one thermoset resin-reactive group, ii) size, or iii) fibrillations, - a plurality of melt extruded semi-crystalline polyolefin fibers (a) having an elastic modulus, measured according to ASTM D2256-02, of more than 8 GPa and a maximum cross-sectional dimension of less than 100μm, and at least one of the following characteristics: greater than 80% crystallinity according to WAXS measuring techniques, and a ratio of equatorial intensity to meridonal intensity of greater than 1.0 as measured by SAXS techniques; - surface functional groups or surface structures capable of bonding with a polymeric binding agent, wherein the surface functional groups include one or more of the following treatments: i) at least one thermoset resin-reactive group, ii) size, or iii) fibrillations, (ii) a second layer; and (iii) a polymeric binding agent securing layer (i) to layer (ii) wherein said surface treatments of said first layer impart increased bonding strength with said polymeric binding agent.
An injection molding machine, comprising: a crosshead; a mold clamping motor which moves the crosshead; and a controller which controls the mold clamping motor, characterized in that the controller is configured to (i) move the crosshead in a predetermined direction via a driving force of the mold clamping motor, and thereafter, (ii) rotate the mold clamping motor by a predetermined amount in a direction opposite to a direction in which the mold clamping motor moves the crosshead in the predetermined direction, and (iii) hold a position of the crosshead for a predetermined time at a position at which the mold clamping motor is rotated by the predetermined amount in a state where the crosshead is pushed in the predetermined direction by the driving force of the mold clamping motor. a crosshead; a mold clamping motor which moves the crosshead; and a controller which controls the mold clamping motor, characterized in that the controller is configured to (i) move the crosshead in a predetermined direction via a driving force of the mold clamping motor, and thereafter, (ii) rotate the mold clamping motor by a predetermined amount in a direction opposite to a direction in which the mold clamping motor moves the crosshead in the predetermined direction, and (iii) hold a position of the crosshead for a predetermined time at a position at which the mold clamping motor is rotated by the predetermined amount in a state where the crosshead is pushed in the predetermined direction by the driving force of the mold clamping motor. (i) move the crosshead in a predetermined direction via a driving force of the mold clamping motor, and thereafter, (ii) rotate the mold clamping motor by a predetermined amount in a direction opposite to a direction in which the mold clamping motor moves the crosshead in the predetermined direction, and (iii) hold a position of the crosshead for a predetermined time at a position at which the mold clamping motor is rotated by the predetermined amount in a state where the crosshead is pushed in the predetermined direction by the driving force of the mold clamping motor.
An absorbent core extending in a longitudinal direction parallel to a longitudinal axis and a transversal direction perpendicular to the longitudinal direction, wherein the absorbent core comprises: - a core wrap (16, 16') comprising a top side and a bottom side; - an absorbent material between the top side and the bottom side of the core wrap; - a first and second longitudinally-extending channel-forming areas (26a, 26b) substantially free of absorbent material preferably through which the top side of the core wrap is attached to the bottom side of the core wrap, and wherein the first channel-forming area is on one side of the longitudinal axis and the second channel-forming area is on the other side of the longitudinal axis; - a central absorbent zone comprising absorbent material and disposed between the first and the second channel-forming areas; and - a first lateral absorbent zone and a second lateral absorbent zone comprising absorbent material and disposed laterally outwardly of the first channel-forming area and the second channel-forming area respectively; characterized in that: the basis weight of the absorbent material in the central absorbent zone is higher than the basis weight of the absorbent material in each of the lateral absorbent zones for at least a first transversal section of the core having a first length in the longitudinal direction of at least 10 mm; and the basis weight of the absorbent material in the central absorbent zone is lower than the basis weight of the absorbent material in each of the lateral absorbent zones for at least a second transversal section of the core having a second length in the longitudinal direction of at least 10 mm. - a core wrap (16, 16') comprising a top side and a bottom side; - an absorbent material between the top side and the bottom side of the core wrap; - a first and second longitudinally-extending channel-forming areas (26a, 26b) substantially free of absorbent material preferably through which the top side of the core wrap is attached to the bottom side of the core wrap, and wherein the first channel-forming area is on one side of the longitudinal axis and the second channel-forming area is on the other side of the longitudinal axis; - a central absorbent zone comprising absorbent material and disposed between the first and the second channel-forming areas; and - a first lateral absorbent zone and a second lateral absorbent zone comprising absorbent material and disposed laterally outwardly of the first channel-forming area and the second channel-forming area respectively; the basis weight of the absorbent material in the central absorbent zone is higher than the basis weight of the absorbent material in each of the lateral absorbent zones for at least a first transversal section of the core having a first length in the longitudinal direction of at least 10 mm; and the basis weight of the absorbent material in the central absorbent zone is lower than the basis weight of the absorbent material in each of the lateral absorbent zones for at least a second transversal section of the core having a second length in the longitudinal direction of at least 10 mm.
A double-layer compound register system, comprising: a control unit, a work register, a complementary register, an output register and an output complementary register; wherein the control unit is configured to receive an external reset signal and an external clock signal; when the external reset signal is valid, the control unit is further configured to put the work register, the complementary register, the output register and the output complementary register into a reset state; when the external reset signal is invalid, the control unit is further configured to put the work register and the complementary register into a work state, and to put the output register and the output complementary register into the reset state in a first half of each clock cycle; when the external reset signal is invalid, the control unit is further configured to put the output register and the output complementary register into the work state, and to put the work register and the complementary register into the reset state in the second half of the each clock cycle; in the work state, a value of the work register and a value of the complementary register are complementary, and a value of the output register and a value of the output complementary register are complementary.
A structural reinforcement system, comprising a cavity to be reinforced and a rigid carrier, characterised in that the system further comprises: an insert fixedly secured to said rigid carrier to increase the structural rigidity of the reinforcement system, the insert is made from a metal and the rigid carrier is made from a rigid plastic; and a bonding material disposed over at least a portion of said rigid carrier or said insert, such that said rigid carrier and said insert will be secured in place after said bonding material expands, said insert is disposed longitudinally or transversally near a cavity wall of the cavity opposite to a load application, where the system will be subjected to tensile loads, and said carrier is overmolded around insert. an insert fixedly secured to said rigid carrier to increase the structural rigidity of the reinforcement system, the insert is made from a metal and the rigid carrier is made from a rigid plastic; and a bonding material disposed over at least a portion of said rigid carrier or said insert, such that said rigid carrier and said insert will be secured in place after said bonding material expands, said insert is disposed longitudinally or transversally near a cavity wall of the cavity opposite to a load application, where the system will be subjected to tensile loads, and said carrier is overmolded around insert.
Apparatus for the automated management of bacterial load detector devices (11; 58), comprising: - a chamber configured as a clean room and delimited by walls, at least one of said walls being provided with at least one access aperture which is able to be selectively closed by a primary closing unit; - a transport container configured to be associated with said aperture for access from the outside of said chamber and provided with a secondary closing unit able to cooperate with the primary closing unit of said chamber so that they are able to be opened in a manner functionally correlated with each other in order to put the inside of the transport container in communication with the inside of the chamber; - a slider able to house one or more bacterial load detector devices (11; 58), said slider being configured to be contained sliding inside said transport container; - a support device disposed inside said chamber and configured to support in a stable manner said slider inside said chamber after having been extracted from said transport container; - an automatic operator device positioned in said chamber and provided with gripping means configured to grip and move at least one of said bacterial load detector devices (11; 58) in order to alternatively remove it from, or deposit it in, said slider, characterized in that said slider is provided with sliding and guide means configured to cooperate with first guide members provided in the transport container and with second guide members (44, 45) provided on the support device, said first guide members and said second guide members (44, 45) being configured and spatially disposed so that said slider, during its extraction from said transport container and its subsequent collocation on the support device, performs a combined movement formed by a translation (F 1) in a rectilinear longitudinal direction and a subsequent rotation. - a chamber configured as a clean room and delimited by walls, at least one of said walls being provided with at least one access aperture which is able to be selectively closed by a primary closing unit; - a transport container configured to be associated with said aperture for access from the outside of said chamber and provided with a secondary closing unit able to cooperate with the primary closing unit of said chamber so that they are able to be opened in a manner functionally correlated with each other in order to put the inside of the transport container in communication with the inside of the chamber; - a slider able to house one or more bacterial load detector devices (11; 58), said slider being configured to be contained sliding inside said transport container; - a support device disposed inside said chamber and configured to support in a stable manner said slider inside said chamber after having been extracted from said transport container; - an automatic operator device positioned in said chamber and provided with gripping means configured to grip and move at least one of said bacterial load detector devices (11; 58) in order to alternatively remove it from, or deposit it in, said slider,
A load distribution harness for water based sports, comprising a body support that in use is connected to a spreader bar for connection to a pulling element, the body support and the spreader bar being connectable to each other so that the harness in use encircles the lower part of the torso of a user and distributes a pulling load exerted on the spreader bar over the body of the user, preferably over the lumbar region of the user, the body support including a stiffening shell provided with composite material, characterized in that the stiffening shell comprises a support plate from fibre reinforced sheet material having thermoplastic matrix material with fibres embedded therein, which support plate is substantially C- shaped and extends continuously from a first end region that in use extends to a first end of the spreader bar, via a midsection that in use extends along the body of the user, preferably along the lumbar region of the user, to a second end region that in use extends to a second end of the spreader bar.
A Ceramic Matrix Composite platform assembly for an airfoil of a gas turbine engine comprising a CMC platform segment (86,88; 114) which at least partially defines an airfoil profile, wherein said CMC platform segment defines a CMC forward platform segment with a first platform inner surface which at least partially defines said airfoil profile; characterised in that: the assembly further comprises a CMC aft platform segment with a second platform inner surface which defines a remainder of said airfoil profile. the assembly further comprises a CMC aft platform segment with a second platform inner surface which defines a remainder of said airfoil profile.
A method of selecting a base station (110, 120) to be used as a serving base station of a mobile terminal, the method comprising: determining a first fill level of a buffer for storing downlink data to be transmitted to the mobile terminal; determining a second fill level of a buffer for storing uplink data to be transmitted from the mobile terminal; determining a traffic characteristic of the mobile terminal from the first fill level and the second fill level, wherein the traffic characteristic indicates an asymmetry between uplink data traffic of the mobile terminal and downlink data traffic of the mobile terminal; and on the basis of the traffic characteristic selecting between - a first mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its downlink radio capacity as compared to one or more other base stations (110, 120); and - a second mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its uplink radio capacity as compared to one or more other base stations (110, 120). determining a first fill level of a buffer for storing downlink data to be transmitted to the mobile terminal; determining a second fill level of a buffer for storing uplink data to be transmitted from the mobile terminal; determining a traffic characteristic of the mobile terminal from the first fill level and the second fill level, wherein the traffic characteristic indicates an asymmetry between uplink data traffic of the mobile terminal and downlink data traffic of the mobile terminal; and on the basis of the traffic characteristic selecting between - a first mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its downlink radio capacity as compared to one or more other base stations (110, 120); and - a second mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its uplink radio capacity as compared to one or more other base stations (110, 120). - a first mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its downlink radio capacity as compared to one or more other base stations (110, 120); and - a second mode in which the base station (110, 120) to be used as the serving base station is selected on the basis of its uplink radio capacity as compared to one or more other base stations (110, 120).
An apparatus, comprising: a scanning module (118; 402) structured to provide an image sensor scan command; an image sensor adapted to perform a test pattern scan in response to the image sensor scan command, wherein the test pattern scan comprises a scan of a test pattern (104; 208) projected onto a manufacturing surface; a focus definition module (118; 408) structured to determine an image focus index, wherein the image focus index comprises at least one of a RMS amplitude (root mean squared amplitude) for a first harmonic frequency of the test pattern scan divided by an RMS amplitude for a fundamental frequency of the test pattern scan, a sum of RMS amplitude values for more than one harmonic frequency of the test pattern scan divided by the RMS amplitude for the fundamental frequency, or a sum of all RMS amplitude values for harmonic frequencies having an amplitude higher than a threshold divided by the RMS amplitude for the fundamental frequency; and a focus control module (118; 120; 412) structured to iteratively adjust a projector focus value to maximize the image focus index. a scanning module (118; 402) structured to provide an image sensor scan command; an image sensor adapted to perform a test pattern scan in response to the image sensor scan command, wherein the test pattern scan comprises a scan of a test pattern (104; 208) projected onto a manufacturing surface; a focus definition module (118; 408) structured to determine an image focus index, wherein the image focus index comprises at least one of a RMS amplitude (root mean squared amplitude) for a first harmonic frequency of the test pattern scan divided by an RMS amplitude for a fundamental frequency of the test pattern scan, a sum of RMS amplitude values for more than one harmonic frequency of the test pattern scan divided by the RMS amplitude for the fundamental frequency, or a sum of all RMS amplitude values for harmonic frequencies having an amplitude higher than a threshold divided by the RMS amplitude for the fundamental frequency; and a focus control module (118; 120; 412) structured to iteratively adjust a projector focus value to maximize the image focus index.
An electrical power system for distributing electrical power in an aircraft, the electrical power system comprising: an electrical power source configured to output a number R ≥ 2 of dc power channels, each dc power channel having a respective index r = (1,..., R); a group of N dc load channels connected to the R dc power channels by a switching arrangement, wherein N > R and each dc load channel has a respective index n = (1,..., N); a poly-phase electrical load connected to and powered by the N load channels; and a controller, wherein the system further comprises, for each respective one of a plurality of the N load channels, a current limiting device, CLD, operable to limit an amount of current flowing from the power channels to the poly-phase electrical load via the respective load channel, and charaterized in that the controller is configured to control the switching arrangement so that, in a no fault condition, pairs of phases (A1-D1) of the poly-phase electrical load are powered by the same power channels so as to cancel harmonics in current supplied by the power channels. an electrical power source configured to output a number R ≥ 2 of dc power channels, each dc power channel having a respective index r = (1,..., R); a group of N dc load channels connected to the R dc power channels by a switching arrangement, wherein N > R and each dc load channel has a respective index n = (1,..., N); a poly-phase electrical load connected to and powered by the N load channels; and a controller, wherein the system further comprises, for each respective one of a plurality of the N load channels, a current limiting device, CLD, operable to limit an amount of current flowing from the power channels to the poly-phase electrical load via the respective load channel, and charaterized in that the controller is configured to control the switching arrangement so that, in a no fault condition, pairs of phases (A1-D1) of the poly-phase electrical load are powered by the same power channels so as to cancel harmonics in current supplied by the power channels.