mhurhangee/ep-ind-claims huggingface dataset:
A gas compressor having aerostatic bearing formation between a piston and a cylinder, the gas compressor comprising at least: - a pad externally surrounding the cylinder; - an inner cavity arranged between the pad and the cylinder, the inner cavity being fluidly fed by a discharge flow arising from a compression movement exerted by the piston within the cylinder; - a bearing formation gap separating a piston outer wall and an inner cylinder wall; and - a housing which fluidly associates the inner cavity to the bearing formation gap, - a flow restrictor placed inside the housing, the gas compressor being characterized in that the flow restrictor comprises a porous element and a deformable jacket radially and longitudinally surrounding at least part of the porous element, the deformable jacket promoting sealing through plastic deformation, wherein the deformable jacket deformation seals the interfaces between the deformable jacket and the housing and between the deformable jacket and the porous element, the porous element being provided with a porosity limiting the gas flow flowing from the inner cavity to the bearing formation gap. - a pad externally surrounding the cylinder; - an inner cavity arranged between the pad and the cylinder, the inner cavity being fluidly fed by a discharge flow arising from a compression movement exerted by the piston within the cylinder; - a bearing formation gap separating a piston outer wall and an inner cylinder wall; and - a housing which fluidly associates the inner cavity to the bearing formation gap, - a flow restrictor placed inside the housing,
Electric machine, having a shaft as well as a cooling system, which comprises at least one cooling channel (4, 5, 17) formed by at least one component of the electric machine, wherein the cooling system is filled with an electrically conductive coolant circulating through the cooling system, wherein the shaft is in electrical contact with the coolant and is grounded by the coolant, wherein the electric machine comprises a housing, wherein the housing has at least one connection (7, 15, 16) communicating with the cooling system, by means of which connection the cooling system is connected or can be connected to a cooling circuit, wherein the coolant can be supplied through the cooling circuit to the cooling system via the at least one connection (7, 15, 16).
A method for feeding glass melting plants with bulk materials consisting of shards and primary raw materials (raw material mixture), wherein the bulk materials are stored in a silo in which they slide downwards due to their gravitational force, where they move through an outlet onto a conveyor which conveys them to the glass melting plant, wherein the silo is composed of two separate storage containers (4, 5) of which the first storage container accommodates the shards and the second storage container accommodates the raw material mixture, characterized in that the raw material mixture is force-conveyed into the first storage container for shards by means of a dosing device arranged below the outlet of the second storage container (metered addition), that a mixture of the shards stored in the first storage container and the raw material mixture fed from the second storage container exits from the outlet of the first storage container, and the two components of the melt material thus brought together are conveyed to the delivery point of the glass melting plant by means of a withdrawal device, and that heat from the hot exhaust gases of the glass melting plant is fed to the first storage container for the shards so that the shards are preheated.
A digital pre-distortion system for observing and correcting the non-linearity of a power amplifier in a transmitter, the transmitter configured to transmit a multi-band signal having M bands with respective bandwidths B 1 = f H1 -f L1,... B m = F HM -F LM, where f H1... f HM are the respective upper cut-off frequencies of the M bands and f L1... f LM are the respective lower cut-off frequencies of the M bands, the system comprising: an observing path configured to sample the output signal of the power amplifier, and a digital signal processing module for measuring and/or correcting the non-linearity of the power amplifier; wherein the observing path comprises an undersampling analog-to-digital converter, ADC, configured to: sample the output signal of the power amplifier at a sampling rate f S to produce an undersampled multi-band digital signal, wherein f S is determined from f S 1 ∩ f S 2 ∩... ∩ f SM, f S 1... f SM being computed for each band by calculating 2 f Hk n ≤ f Sk ≤ 2 f Lk n − 1 where 1 ≤ n ≤ f Hk B k and 1 ≤ k ≤ M, to satisfy the conditions | f' Cj - f ′ Ck | < max B j 2 B k 2 or f ′ Cj − f ′ iCk < max B j 2 B k 2 where 1 ≤ j ≤ M, 1 ≤ k ≤ M, j ≠ k, f' C1... f' CM are the center frequencies of the M bands in the undersampled multi-band digital signal, and f' iC1... f' iCM are center frequencies of M images of the M bands in the undersampled multi-band digital signal, so that the undersampled multi-band digital signal has a characteristic where some overlap between the M bands exists in the frequency domain; and provide the undersampled multi-band digital signal to the digital signal processing module to measure and/or correct the non-linearity of the power amplifier for the multi-band signal. an observing path configured to sample the output signal of the power amplifier, and a digital signal processing module for measuring and/or correcting the non-linearity of the power amplifier; wherein the observing path comprises an undersampling analog-to-digital converter, ADC, configured to: sample the output signal of the power amplifier at a sampling rate f S to produce an undersampled multi-band digital signal, wherein f S is determined from f S 1 ∩ f S 2 ∩... ∩ f SM, f S 1... f SM being computed for each band by calculating 2 f Hk n ≤ f Sk ≤ 2 f Lk n − 1 where 1 ≤ n ≤ f Hk B k and 1 ≤ k ≤ M, to satisfy the conditions | f' Cj - f ′ Ck | < max B j 2 B k 2 or f ′ Cj − f ′ iCk < max B j 2 B k 2 where 1 ≤ j ≤ M, 1 ≤ k ≤ M, j ≠ k, f' C1... f' CM are the center frequencies of the M bands in the undersampled multi-band digital signal, and f' iC1... f' iCM are center frequencies of M images of the M bands in the undersampled multi-band digital signal, so that the undersampled multi-band digital signal has a characteristic where some overlap between the M bands exists in the frequency domain; and provide the undersampled multi-band digital signal to the digital signal processing module to measure and/or correct the non-linearity of the power amplifier for the multi-band signal.
A laminate comprising an intermediate layer, a base layer formed on the intermediate layer, a metallic base layer formed on the base layer, and a transparent colored layer formed on the metallic base layer, wherein the metallic base layer comprises an aluminum pigment, a light-scattering component, a surface adjusting agent, and a rheology control agent, the aluminum pigment being present in an amount of 15 to 70 parts by mass, on a solids basis, and the light-scattering component being present in an amount of 5 to 55 parts by mass, on a solids basis, based on 100 parts by mass of the metallic base layer; the light-scattering component comprises a white pigment, an interference pigment, or a combination thereof; the interference pigment is an effect pigment obtained by coating the surface of transparent or translucent flaky base material excluding a white pigment, with a metal oxide having refractive index that is different from that of the base material; the metallic base layer has a film thickness of 0.02 to 4 μ m; and the transparent colored layer comprises a resin component, a curing agent, and a color pigment, the color pigment being present in an amount of 0.5 to 10 parts by mass, based on 100 parts by mass of the resin solids content of the transparent colored layer. wherein the metallic base layer comprises an aluminum pigment, a light-scattering component, a surface adjusting agent, and a rheology control agent, the aluminum pigment being present in an amount of 15 to 70 parts by mass, on a solids basis, and the light-scattering component being present in an amount of 5 to 55 parts by mass, on a solids basis, based on 100 parts by mass of the metallic base layer; the light-scattering component comprises a white pigment, an interference pigment, or a combination thereof; the interference pigment is an effect pigment obtained by coating the surface of transparent or translucent flaky base material excluding a white pigment, with a metal oxide having refractive index that is different from that of the base material; the metallic base layer has a film thickness of 0.02 to 4 μ m; and the transparent colored layer comprises a resin component, a curing agent, and a color pigment, the color pigment being present in an amount of 0.5 to 10 parts by mass, based on 100 parts by mass of the resin solids content of the transparent colored layer.
A projector display system capable of recycling light from a plurality of light sources, said projector display system comprising: a plurality of partially coherent colored light sources, each emitting a colored light for modulation; a light recycling module including an integrated rod, said integrating rod configured to receive light from said light source at a proximal end and wherein said proximal end comprising a reflective surface, capable of reflecting light down said integrating rod; a first modulator, said first modulator comprising a plurality of moveable mirrors, said plurality of moveable mirrors being capable of reflecting light received from said integrating rod in a first projection direction and a light recycling direction, wherein said light recycling direction is substantially in the direction of the integrating rod; and a controller configured to receive input image and/or video data, to output control signals to the first modulator and to modulate the light source for adjusting the light source intensity, the controller being configured to: - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light. a plurality of partially coherent colored light sources, each emitting a colored light for modulation; a light recycling module including an integrated rod, said integrating rod configured to receive light from said light source at a proximal end and wherein said proximal end comprising a reflective surface, capable of reflecting light down said integrating rod; a first modulator, said first modulator comprising a plurality of moveable mirrors, said plurality of moveable mirrors being capable of reflecting light received from said integrating rod in a first projection direction and a light recycling direction, wherein said light recycling direction is substantially in the direction of the integrating rod; and a controller configured to receive input image and/or video data, to output control signals to the first modulator and to modulate the light source for adjusting the light source intensity, the controller being configured to: - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light. - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light.
A method for bandwidth map update, comprising: after receiving a bandwidth report carried by a control frame, a master node newly establishing a bandwidth map, newly establishing a resource state table, and setting all resource states in the newly established resource state table to be available; adding a cross-master node transport channel drop allocation structure of the newly established bandwidth map in accordance with a cross-master node transport channel add allocation structure of a bandwidth map to be updated, and updating the resource state table according to resource occupancy thereof; according to the bandwidth report carried by the control frame, allocating a wavelength and an optical burst timeslot to a current bandwidth request one by one, adding wavelengths and optical burst timeslots to the newly established bandwidth map, generating a new bandwidth map, and updating the resource state table; and distributing the control frame carrying the new bandwidth map to slave nodes hop by hop. after receiving a bandwidth report carried by a control frame, a master node newly establishing a bandwidth map, newly establishing a resource state table, and setting all resource states in the newly established resource state table to be available; adding a cross-master node transport channel drop allocation structure of the newly established bandwidth map in accordance with a cross-master node transport channel add allocation structure of a bandwidth map to be updated, and updating the resource state table according to resource occupancy thereof; according to the bandwidth report carried by the control frame, allocating a wavelength and an optical burst timeslot to a current bandwidth request one by one, adding wavelengths and optical burst timeslots to the newly established bandwidth map, generating a new bandwidth map, and updating the resource state table; and distributing the control frame carrying the new bandwidth map to slave nodes hop by hop.
A light deactivated adhesive drape system for coupling to tissue, the system comprising: a drape comprising: a photosensitive adhesive layer having at least one release agent, wherein the at least one release agent weakens a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and an optical fiber mesh layer forming a light pipe to transport the plurality of light wavelengths to the photosensitive adhesive layer upon exposure of at least a portion of the optical fiber mesh layer to the plurality of light wavelengths; and a blocking layer which blocks the plurality of light wavelengths that activate the at least one release agent; wherein the blocking layer includes one or more perforations defining an area of a removable patch allowing exposure of the optical fiber mesh layer to the plurality of light wavelengths upon removal of the removable patch. a drape comprising: a photosensitive adhesive layer having at least one release agent, wherein the at least one release agent weakens a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and an optical fiber mesh layer forming a light pipe to transport the plurality of light wavelengths to the photosensitive adhesive layer upon exposure of at least a portion of the optical fiber mesh layer to the plurality of light wavelengths; and a photosensitive adhesive layer having at least one release agent, wherein the at least one release agent weakens a bond of the adhesive layer to the tissue upon exposure to at least one of a plurality of light wavelengths, and an optical fiber mesh layer forming a light pipe to transport the plurality of light wavelengths to the photosensitive adhesive layer upon exposure of at least a portion of the optical fiber mesh layer to the plurality of light wavelengths; and a blocking layer which blocks the plurality of light wavelengths that activate the at least one release agent; wherein the blocking layer includes one or more perforations defining an area of a removable patch allowing exposure of the optical fiber mesh layer to the plurality of light wavelengths upon removal of the removable patch.
A method for laminating a functional film onto an injection molded thermoplastic lens that resides In an injection molding machine having a mold with at least one pair of Inserts defining a lens forming cavity when the mold is closed, comprising the successive steps of; - Injecting molten thermoplastic resin into a lens-forming cavity held closed under a primary clamp force; - opening the mold (104, 106) at a time when the lens is rigid enough to retain Its shape and separate from one of the inserts; - depositing at least one drop of an unpressurized full metered charge of curable glue onto the center of said lens; - Introducing (16a; 18b) a functional film between said glue and the separated insert; and - closing said mold (104, 106) to a secondary clamp force less than or equal to the primary clamp force to thinly spread said glue between the film and lens so that It cures with the heat transferred from said mold (104, 106) and the diminishing residual heat of said lens. - Injecting molten thermoplastic resin into a lens-forming cavity held closed under a primary clamp force; - opening the mold (104, 106) at a time when the lens is rigid enough to retain Its shape and separate from one of the inserts; - depositing at least one drop of an unpressurized full metered charge of curable glue onto the center of said lens; - Introducing (16a; 18b) a functional film between said glue and the separated insert; and - closing said mold (104, 106) to a secondary clamp force less than or equal to the primary clamp force to thinly spread said glue between the film and lens so that It cures with the heat transferred from said mold (104, 106) and the diminishing residual heat of said lens.
A spine formation device for forming a spine of a bundle of folded sheets, comprising: a sheet conveyer that conveys the bundle of folded sheets with a folded portion of the bundle forming a front end portion of the bundle; a clamping unit (32,325,326) disposed downstream from the sheet conveyer in a sheet conveyance direction in which the bundle of folded sheets is transported, for squeezing the folded portion of the bundle in a direction of thickness of the bundle; a contact member disposed downstream from the clamping unit (32,325,326) in the sheet conveyance direction, against which the folded portion of the bundle is pressed; and characterised by a controller comprising a CPU and operatively connected to the sheet conveyer as well as the clamping unit (32,325,326) to cause the bundle of folded sheets to bulge by stopping the sheet conveyer after the bundle of folded sheets is transported a predetermined conveyance distance downstream in the sheet conveyance direction from a contact position between the contact member and the folded portion of the bundle, and to cause the clamping unit (32,325,326) to squeeze a bulging portion of the bundle created between the sheet conveyer and the contact member with the folded potion pressed against the contact member, wherein the predetermined distance is set in accordance with a predetermined sheet-related variable comprising at least a special sheet classification being data identifying the sheet as one of an OHP sheet, a label sheet, and a coated sheet. a sheet conveyer that conveys the bundle of folded sheets with a folded portion of the bundle forming a front end portion of the bundle; a clamping unit (32,325,326) disposed downstream from the sheet conveyer in a sheet conveyance direction in which the bundle of folded sheets is transported, for squeezing the folded portion of the bundle in a direction of thickness of the bundle; a contact member disposed downstream from the clamping unit (32,325,326) in the sheet conveyance direction, against which the folded portion of the bundle is pressed; and characterised by a controller comprising a CPU and operatively connected to the sheet conveyer as well as the clamping unit (32,325,326) to cause the bundle of folded sheets to bulge by stopping the sheet conveyer after the bundle of folded sheets is transported a predetermined conveyance distance downstream in the sheet conveyance direction from a contact position between the contact member and the folded portion of the bundle, and to cause the clamping unit (32,325,326) to squeeze a bulging portion of the bundle created between the sheet conveyer and the contact member with the folded potion pressed against the contact member, wherein the predetermined distance is set in accordance with a predetermined sheet-related variable comprising at least a special sheet classification being data identifying the sheet as one of an OHP sheet, a label sheet, and a coated sheet.
A carbon support material for a solid polymer type fuel cell comprised of a porous carbon material with a hydrogen content of 0.004 mass% to 0.010 mass% in range, a nitrogen adsorption BET specific surface area of 600 m 2 /g to 1500 m 2 /g, and a relative intensity ratio (I D /I G) of a peak intensity (I D) of the range of 1200 to 1400 cm -1 called the "D-band" and a peak intensity (I G) of the range of 1500 to 1700 cm -1 called the "G-band" of 1.0 to 2.0, wherein the peak intensities (I D) and (I G) are obtained from the Raman spectrum.
A method in an access point, AP, for setting an inactivity timer in a radio communication network comprising the AP, a mobility management entity, MME, and a session management entity, SME, the method comprising: obtaining an inactivity timer value for one or more user equipments, UEs, served by the AP; transmitting the inactivity timer value to the MME for notifying the SME of the inactivity timer value for the one or more UEs; wherein, for each of the one or more UEs, the AP and the SME respectively maintain an inactivity timer associated with the UE based on the inactivity timer value and remove resources locally used for the UE when the inactivity timer expires. obtaining an inactivity timer value for one or more user equipments, UEs, served by the AP; transmitting the inactivity timer value to the MME for notifying the SME of the inactivity timer value for the one or more UEs; wherein, for each of the one or more UEs, the AP and the SME respectively maintain an inactivity timer associated with the UE based on the inactivity timer value and remove resources locally used for the UE when the inactivity timer expires.
A resin composition comprising: a urethane (meth)acrylate produced from the reaction of at least one polyisocyanate, a combination of polyols that include at least two polyalkylene glycols having different equivalent weights, and a compound comprising a nucleophilic group and a (meth)acrylate group selected from the group consisting of hydroxyethyl acrylate, hydroxypropyl acrylate, hydroxyethyl methacrylate, hydroxyethyl acrylamide, hydroxypropyl acrylamide, and mixtures thereof; a reactive diluent; and a urethane (meth)acrylate toughener comprising at least one additional polyol having a number average molecular weight Mn from 3,500 g/mol to 8,500 g/mol. a urethane (meth)acrylate produced from the reaction of at least one polyisocyanate, a combination of polyols that include at least two polyalkylene glycols having different equivalent weights, and a compound comprising a nucleophilic group and a (meth)acrylate group selected from the group consisting of hydroxyethyl acrylate, hydroxypropyl acrylate, hydroxyethyl methacrylate, hydroxyethyl acrylamide, hydroxypropyl acrylamide, and mixtures thereof; a reactive diluent; and a urethane (meth)acrylate toughener comprising at least one additional polyol having a number average molecular weight Mn from 3,500 g/mol to 8,500 g/mol.