mhurhangee/ep-ind-claims huggingface dataset:
A multi-layer film-coated powder, which comprises at least two coating layers having a different refractive index on the substrate particles thereof and which reflects light having a specific wavelength, wherein the thickness of each layer of the coating film is so designed that the reflection intensity R (λ) of the multi-layer film-coated powder, as corrected in point of the shape and the particle size thereof from the reflection intensity R flat of the multi-layer film of the corresponding multi-layer film-coated flat specifically selected in point of the material of the substrate particles, the number of the coating layers, the coating order of the coating layers, the material of the coating layers and the desired reflected light wavelength, may be the maximum value or the minimum value at a desired wavelength, wherein the substrate particles are one of iron, nickel, chromium, titanium, aluminium, a ferromagnetic alloy, oxides of the aforementioned metals, silicon oxide, calcium oxide, magnesium oxide, barium oxide, composite oxides, metal nitrides, metal carbides, metal sulfides, metal fluorides, metal carbonates, metal phosphates, semi-metal oxides, semi-metal carbides, semi-metal nitrides, non-metal oxides, non-metal carbides, non-metal nitrides, silica, glass beads, silicon balloons, fine carbon hollow balloons Kurekasphere, fused alumina bubbles, aerosol, white carbon, silica fine hollow balloons, calcium carbonate fine hollow balloons, calcium carbonate, pearlite, talc, bentonite, synthetic mica, white mica, kaolin, cellulose powder, cellulose acetate powder, spherical or ground particles of polyamides, epoxy resins, polyesters, melamine resins, polyurethanes, polyvinyl acetate resins, silicon resins, polymers or copolymers of acrylates, methacrylates, styrene, ethylene, propylene, spherical acrylic resin particles obtained through polymerization of acrylic acid or methacrylate; wherein the spectrophotometric characteristics of the multi-layer film-coated powder are such that when the ratio of the length at 400nm between 380nm and 780nm on measuring the reflection spectrum from the vertical reflection light of the multi-layer film-coated powder (wavelength definition width L) to the height of the reflectance 100% in the vertical axis (reflectance definition width R), L/R is 5/2, then the ratio of the peak height to the half-value width, H/W is at least 1.
A method for enhancing reception quality of transmissions, on an uplink control channel, from a user equipment to a serving base station, said method performed by a radio network controller, wherein the radio network controller, the user equipment, and the serving base station are comprised in a communication system, and wherein the method comprises: - when conditions for boosting the uplink control channel are fulfilled, determining a boosting factor as a ratio of a first path gain and a second path gain, wherein the first path gain is a path gain of a channel from the user equipment to a non-serving base station and wherein the second path gain is a path gain of a channel from the user equipment to the serving base station, which non-serving base station is comprised in the communication system and further wherein the conditions for boosting the uplink control channel are fulfilled when an active set of links comprises a link to both the serving base station and the non-serving base station, when the serving base station is a macro base station, and when the communication system is configured for extended Soft HandOver, SHO, and - transmitting the determined boosting factor to the user equipment, whereby the reception quality of transmissions, on the uplink control channel from the user equipment to the serving base station, is enhanced by the user equipment boosting the uplink control channel by means of the boosting factor. - when conditions for boosting the uplink control channel are fulfilled, determining a boosting factor as a ratio of a first path gain and a second path gain, wherein the first path gain is a path gain of a channel from the user equipment to a non-serving base station and wherein the second path gain is a path gain of a channel from the user equipment to the serving base station, which non-serving base station is comprised in the communication system and further wherein the conditions for boosting the uplink control channel are fulfilled when an active set of links comprises a link to both the serving base station and the non-serving base station, when the serving base station is a macro base station, and when the communication system is configured for extended Soft HandOver, SHO, and - transmitting the determined boosting factor to the user equipment, whereby the reception quality of transmissions, on the uplink control channel from the user equipment to the serving base station, is enhanced by the user equipment boosting the uplink control channel by means of the boosting factor.
A conjugate of a polymer and at least one active moiety selected from a therapeutic moiety, a targeting moiety and a diagnostic moiety, said polymer comprising repeating units that are represented by the following formula: -[N(R 1)-(CHR 2) m]- wherein: • R 1 is R 3 -(CHR 4) n -CONH-R 5; • R 2 is selected from H and optionally substituted C 1-5 alkyl; • R 3 is CO, C O, C NH or C NH; • R 4 is selected from H and optionally substituted C 1-5 alkyl; • R 5 is H; an C 1-5 alkyl; aryl; or a moiety comprising a functional group that can be used for conjugation, said functional group being selected from a group comprising a nitrogen atom that is covalently bonded to at least one carbon, hydrogen or heteroatom; a thiol; a phosphine; an alkyne; an alkene; an aryl; an aldehyde; a ketone; an acetal; an ester; a carboxylic acid; a carbonate; a chloroformate; a hydroxyl; an ether; a vinyl sulfone; an epoxide; sulfonate; halo acetic acid and anhydride; • m is 2 or 3; and • n is 1-5. • R 1 is R 3 -(CHR 4) n -CONH-R 5; • R 2 is selected from H and optionally substituted C 1-5 alkyl; • R 3 is CO, C O, C NH or C NH; • R 4 is selected from H and optionally substituted C 1-5 alkyl; • R 5 is H; an C 1-5 alkyl; aryl; or a moiety comprising a functional group that can be used for conjugation, said functional group being selected from a group comprising a nitrogen atom that is covalently bonded to at least one carbon, hydrogen or heteroatom; a thiol; a phosphine; an alkyne; an alkene; an aryl; an aldehyde; a ketone; an acetal; an ester; a carboxylic acid; a carbonate; a chloroformate; a hydroxyl; an ether; a vinyl sulfone; an epoxide; sulfonate; halo acetic acid and anhydride; • m is 2 or 3; and • n is 1-5.
A device, comprising: a housing constructed from a conductive material, the housing including two conductive portions (210A, 210B); an electronic circuit being electrically insulated from one conductive portion of the housing that is removable and being conductively coupled to the other conductive portion of the housing; a power source disposed between the electronic circuit and a side of the housing, the power source positioned such that a first electrical contact of the power source faces the electronic circuit, and such that a second electrical contact of the power source faces the side of the housing; an insulating layer disposed on the housing, the insulating layer including a first aperture (250A-1, 250A-4) and a second aperture (250A-2, 250A-3) formed therein; a first connector configured for electrically coupling the electronic circuit and the first electrical contact; and a second connector configured for electrically coupling the electronic circuit and the side of the housing via the first aperture (250A-1, 250A-4) of the insulating layer, the side of the housing including a raised portion (240A-2, 240A-3) positioned to protrude through the second aperture (250A-2, 250A-3) of the insulating layer and contact the second electrical contact, the power source configured for electrically coupling the second electrical contact with the side of the housing via the second aperture (250A-2, 250A-3) of the insulating layer, such that the second electrical contact is conductively coupled to the electronic circuit via the housing and the second connector. a housing constructed from a conductive material, the housing including two conductive portions (210A, 210B); an electronic circuit being electrically insulated from one conductive portion of the housing that is removable and being conductively coupled to the other conductive portion of the housing; a power source disposed between the electronic circuit and a side of the housing, the power source positioned such that a first electrical contact of the power source faces the electronic circuit, and such that a second electrical contact of the power source faces the side of the housing; an insulating layer disposed on the housing, the insulating layer including a first aperture (250A-1, 250A-4) and a second aperture (250A-2, 250A-3) formed therein; a first connector configured for electrically coupling the electronic circuit and the first electrical contact; and a second connector configured for electrically coupling the electronic circuit and the side of the housing via the first aperture (250A-1, 250A-4) of the insulating layer, the side of the housing including a raised portion (240A-2, 240A-3) positioned to protrude through the second aperture (250A-2, 250A-3) of the insulating layer and contact the second electrical contact, the power source configured for electrically coupling the second electrical contact with the side of the housing via the second aperture (250A-2, 250A-3) of the insulating layer, such that the second electrical contact is conductively coupled to the electronic circuit via the housing and the second connector.
A method for detecting non-visible vehicles in a driven vehicle's environment, wherein each vehicle (A, B) is equipped with at least one proximity sensor and wherein a non-visible vehicle is defined as a vehicle located behind an obstacle obstructing the view between the two vehicles, the method comprising for the driven vehicle the steps of: - screening, by a receiver of the proximity sensor of the driven vehicle, any incoming proximity signal capable of propagating through the air along a non-linear path without reflective surfaces so that a light beam would not be able to reach non-visible vehicles from the driven vehicle; - receiving an incoming proximity signal (PS B) emitted by the proximity sensor of a non-visible vehicle; - processing the received proximity signal (PS B) to detect the non-visible vehicle; and - warning a driver and/or an advanced driver-assistance system about the detected non-visible vehicle. - screening, by a receiver of the proximity sensor of the driven vehicle, any incoming proximity signal capable of propagating through the air along a non-linear path without reflective surfaces so that a light beam would not be able to reach non-visible vehicles from the driven vehicle; - receiving an incoming proximity signal (PS B) emitted by the proximity sensor of a non-visible vehicle; - processing the received proximity signal (PS B) to detect the non-visible vehicle; and - warning a driver and/or an advanced driver-assistance system about the detected non-visible vehicle.
A method, characterized in: receiving, at a mobility management entity, an indication of a repetition level for a user equipment; determining, by the mobility management entity, based on the received repetition level, whether a paging is for user equipment in coverage enhancement mode; indicating, by the mobility management entity in a paging message, that the paging is for user equipment in coverage enhancement mode, based on the determining; and sending, by the mobility management entity, the received repetition level to an evolved Node B, wherein the repetition level is indicative of a number of repetitions of a physical downlink control channel for paging message transmission to the user equipment, wherein the repetition level of the user equipment is conveyed to the mobility management entity when the user equipment moves to idle mode. receiving, at a mobility management entity, an indication of a repetition level for a user equipment; determining, by the mobility management entity, based on the received repetition level, whether a paging is for user equipment in coverage enhancement mode; indicating, by the mobility management entity in a paging message, that the paging is for user equipment in coverage enhancement mode, based on the determining; and sending, by the mobility management entity, the received repetition level to an evolved Node B, wherein the repetition level is indicative of a number of repetitions of a physical downlink control channel for paging message transmission to the user equipment, wherein the repetition level of the user equipment is conveyed to the mobility management entity when the user equipment moves to idle mode.
A braided stent, including: a plurality of first filaments, extending spirally around a tubular form along a first direction; a plurality of second filaments extending spirally around said tubular form along a second direction, said second direction being opposite from said first direction, and said second filaments being braided with said first filaments; a third filament extending spirally around said tubular form along said second direction, and said third filament being braided with said first filaments; wherein said third filament only extends along said second direction, a number of said third filament is less than a number of said first filaments and less than a number of said second filaments, and said third filament is at least 20% stiffer than said first filaments and said second filaments; wherein said helix angles of said first and second filaments change along a middle portion of said tubular wall to decrease an open area of said tubular wall along the middle portion, there being more open area at the ends. a plurality of first filaments, extending spirally around a tubular form along a first direction; a plurality of second filaments extending spirally around said tubular form along a second direction, said second direction being opposite from said first direction, and said second filaments being braided with said first filaments; a third filament extending spirally around said tubular form along said second direction, and said third filament being braided with said first filaments; wherein said third filament only extends along said second direction, a number of said third filament is less than a number of said first filaments and less than a number of said second filaments, and said third filament is at least 20% stiffer than said first filaments and said second filaments; wherein said helix angles of said first and second filaments change along a middle portion of said tubular wall to decrease an open area of said tubular wall along the middle portion, there being more open area at the ends.
An attachment apparatus for selectively attaching a device to a flexible material, the attachment apparatus comprising: a first member having a first wall defining a first opening and including a first surface and a second surface formed on an opposite side of the first wall than the first surface, the first member including a first projection extending in a direction away from the second surface and including a first retention feature; a second member having a second retention feature selectively attached to the first retention feature in an attached state to connect the second member to the first member and to the flexible material; and a void formed between the second surface of the first wall and the flexible material when the second member is in the attached state and operable to receive the device therein, the first member operable to support the device within the void between the second surface of the first member and the flexible material when the second member is in the attached state. a first member having a first wall defining a first opening and including a first surface and a second surface formed on an opposite side of the first wall than the first surface, the first member including a first projection extending in a direction away from the second surface and including a first retention feature; a second member having a second retention feature selectively attached to the first retention feature in an attached state to connect the second member to the first member and to the flexible material; and a void formed between the second surface of the first wall and the flexible material when the second member is in the attached state and operable to receive the device therein, the first member operable to support the device within the void between the second surface of the first member and the flexible material when the second member is in the attached state.
A thermal insulation panel formed from a polymeric particle foam for the interior insulation of the external walls or ceilings of buildings, comprising foamed polymeric particles which have been fused together which are additionally bonded by means of an organic binder so that an interstitial volume of interconnected tooth implant cavities remains between the fused and bonded polymeric particles, wherein the surfaces of the polymeric particles delimiting the interstitial volume are provided with a coating which produces a capillary activity on the thermal insulation panel or enhances a capillary activity of the thermal insulation panel which is already present.
A manipulation assembly (10, 110, 210) including: - an element (11, 111, 211) that is to be manipulated, extending along a substantially horizontal axis (12, 112, 212), - a manipulator device (13, 113, 213), the manipulator device being equipped with means (15, 115, 215) for grasping the element that is to be manipulated, the element that is to be manipulated being equipped with complementary assembly means (17, 117, 217) able to cooperate with the grasping means of the manipulator device, said grasping means and said complementary means being configured such that an assembly and/or a disassembly of said means are carried out by translation of the manipulator device with respect to the element that is to be manipulated, along the substantially horizontal axis of said element, and the grasping means of the manipulator device comprising at least two fingers (15, 115, 215), the complementary assembly means of the element that is to be manipulated comprising faces oriented downward and having shapes substantially complementary to a shape of a portion of said fingers, said assembly being characterized in that the manipulator device comprises means (22, 122, 222) for blocking in substantially horizontal translation of said manipulator device with respect to the element that is to be manipulated. - an element (11, 111, 211) that is to be manipulated, extending along a substantially horizontal axis (12, 112, 212), - a manipulator device (13, 113, 213),
A vinyl chloride resin composition for transparent products: comprising 0.001 to 10 mass parts of at least one kind of organic acid zinc salt, 0.001 to 10 mass parts of at least one kind of zinc-modified hydrotalcite compound and 1 to 20 mass parts of oxanilide ultraviolet absorber represented by the following general formula relative to 100 mass parts of vinyl chloride resin. R 1 in the formula is a hydrogen atom or a straight-chain or branched alkyl group having 1 to 12 carbon atoms, R 2 is a straight-chain or branched alkyl group having 1 to 12 carbon atoms, R 3 and R 4 are each a hydrogen atom or a straight-chain or branched alkyl group having 1 to 18 carbon atoms independently.
A detection method for detecting damage in a railway track supporting block, said detection method comprising: - exciting the supporting block (40, 42); then - measuring the vibratory response of the supporting block; - determining at least a first natural frequency of a first natural mode of the supporting block from the measured vibratory response; - also determining at least a second natural frequency of a second natural mode of the supporting block from the measured vibratory response; - determining at least a damage level of the supporting block at least from said first natural frequency, by comparing the first natural frequency with at least one value for the first predetermined frequency; and - also determining a first type of damage in the supporting block from the first and second natural frequencies, by comparing a ratio between the second and first natural frequencies with a first predetermined coefficient. - exciting the supporting block (40, 42); then - measuring the vibratory response of the supporting block; - determining at least a first natural frequency of a first natural mode of the supporting block from the measured vibratory response; - also determining at least a second natural frequency of a second natural mode of the supporting block from the measured vibratory response; - determining at least a damage level of the supporting block at least from said first natural frequency, by comparing the first natural frequency with at least one value for the first predetermined frequency; and - also determining a first type of damage in the supporting block from the first and second natural frequencies, by comparing a ratio between the second and first natural frequencies with a first predetermined coefficient.
A communication method, comprising: receiving, by a mobility management network element, a registration request message from a terminal; sending, by the mobility management network element, a parameter request message to a vehicle-to-everything,V2X, parameter configuration network element based on the registration request message, wherein the parameter request message is used to request a V2X configuration parameter of the terminal from the V2X parameter configuration network element; wherein the registration request message carries capability indication information used to indicate that the terminal supports V2X communication over PCS; and wherein the V2X configuration parameter comprises a parameter used for V2X communication over PCS; and receiving, by the mobility management network element, the V2X configuration parameter from the V2X parameter configuration network element, and sending the V2X configuration parameter to the terminal, wherein the V2X configuration parameter is used by the terminal to perform a V2X service. receiving, by a mobility management network element, a registration request message from a terminal; sending, by the mobility management network element, a parameter request message to a vehicle-to-everything,V2X, parameter configuration network element based on the registration request message, wherein the parameter request message is used to request a V2X configuration parameter of the terminal from the V2X parameter configuration network element; wherein the registration request message carries capability indication information used to indicate that the terminal supports V2X communication over PCS; and wherein the V2X configuration parameter comprises a parameter used for V2X communication over PCS; and receiving, by the mobility management network element, the V2X configuration parameter from the V2X parameter configuration network element, and sending the V2X configuration parameter to the terminal, wherein the V2X configuration parameter is used by the terminal to perform a V2X service.