mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal control tape for providing thermal control of a spacecraft structure , to which the thermal control tape is applied, the thermal control tape comprising: a filled silicone resin layer having a first side and a second side , the filled silicone resin layer comprising a silicone resin material filled with a white inorganic filler material ; and a silicone pressure sensitive adhesive (PSA) layer having a first side and a second side , the first side of the silicone PSA layer attached to the second side of the filled silicone resin layer, wherein the filled silicone resin layer and the silicone PSA layer form the thermal control tape, with the second side of the silicone PSA layer configured for attachment to at least one surface of the spacecraft structure of a spacecraft , to provide thermal control of the spacecraft structure, by radiating heat away from the spacecraft structure; the thermal control tape further comprising a conductive film layer added between the filled silicone resin layer and the silicone PSA layer ; and wherein the silicone PSA layer further comprises an electrostatic dissipative (ESD) filler material comprising one of, a metallic filler material , and a carbon filler material . a filled silicone resin layer having a first side and a second side , the filled silicone resin layer comprising a silicone resin material filled with a white inorganic filler material ; and a silicone pressure sensitive adhesive (PSA) layer having a first side and a second side , the first side of the silicone PSA layer attached to the second side of the filled silicone resin layer, wherein the filled silicone resin layer and the silicone PSA layer form the thermal control tape, with the second side of the silicone PSA layer configured for attachment to at least one surface of the spacecraft structure of a spacecraft , to provide thermal control of the spacecraft structure, by radiating heat away from the spacecraft structure; the thermal control tape further comprising a conductive film layer added between the filled silicone resin layer and the silicone PSA layer ; and wherein the silicone PSA layer further comprises an electrostatic dissipative (ESD) filler material comprising one of, a metallic filler material , and a carbon filler material .
A user-wearable power generator , comprising a deformation unit and a piezoelectric unit , wherein: the deformation unit is coupled to the piezoelectric unit; the deformation unit comprises a conductive polymer, configured to deform upon contacting moisture to thereby apply a mechanical force to the piezoelectric unit to thereby generate electricity; characterized by a first substrate disposed between the conductive polymer of the deformation unit and the piezoelectric unit and comprising at least one of thermoplastic polyurethane TPU, TPSiV, thermoplastic vulcanizate TPV, thermoplastic elastomer TPE, theroplastic polyolefin TPO, liquid silicone rubber LSR, and high consistency rubber HCR. the deformation unit is coupled to the piezoelectric unit; the deformation unit comprises a conductive polymer, configured to deform upon contacting moisture to thereby apply a mechanical force to the piezoelectric unit to thereby generate electricity; characterized by a first substrate disposed between the conductive polymer of the deformation unit and the piezoelectric unit and comprising at least one of thermoplastic polyurethane TPU, TPSiV, thermoplastic vulcanizate TPV, thermoplastic elastomer TPE, theroplastic polyolefin TPO, liquid silicone rubber LSR, and high consistency rubber HCR.
A capacitor (21; 31; 41), comprising: a substrate ; a bottom plate, which extends over the substrate and includes a first conductive layer ; a top plate, which extends over the bottom plate and includes a second conductive layer ; a contact region , electrically coupled to the first conductive layer ; and a first dielectric layer , which extends between the bottom plate and the top plate, the first dielectric layer defining a surface path between the second conductive layer and the contact region and having a plurality of grooves which increase the length of said surface path, wherein the first dielectric layer further includes a first dielectric region , which extends between the bottom plate and the top plate, and a second dielectric region which extends between the first dielectric region and the contact region , the second dielectric region being contiguous to the first dielectric region , said grooves being formed in said second dielectric region, said capacitor being characterized by further comprising a thickness-enhancement body of dielectric material, which extends over the bottom plate, and which extends continuously at the first dielectric region between the bottom plate and the first dielectric layer and which extends discontinuously at the second dielectric region between the bottom plate and the first dielectric layer, having openings at the second dielectric region, wherein the first dielectric layer is of a polymeric material configured for reproducing, at the surface level, said openings in a conformable way, to form said grooves . a substrate ; a bottom plate, which extends over the substrate and includes a first conductive layer ; a top plate, which extends over the bottom plate and includes a second conductive layer ; a contact region , electrically coupled to the first conductive layer ; and a first dielectric layer , which extends between the bottom plate and the top plate, the first dielectric layer defining a surface path between the second conductive layer and the contact region and having a plurality of grooves which increase the length of said surface path, wherein the first dielectric layer further includes a first dielectric region , which extends between the bottom plate and the top plate, and a second dielectric region which extends between the first dielectric region and the contact region , the second dielectric region being contiguous to the first dielectric region , said grooves being formed in said second dielectric region, said capacitor being characterized by further comprising a thickness-enhancement body of dielectric material, which extends over the bottom plate, and which extends continuously at the first dielectric region between the bottom plate and the first dielectric layer and which extends discontinuously at the second dielectric region between the bottom plate and the first dielectric layer, having openings at the second dielectric region, wherein the first dielectric layer is of a polymeric material configured for reproducing, at the surface level, said openings in a conformable way, to form said grooves .
A method for a bending test of a flexible screen, comprising: connecting (S110) the flexible screen to amounting device ; conducting (S120) a mechanical extrusion test to the flexible screen to bend the flexible screen by placing an extrusion point for the mechanical extrusion test away from connection points between the flexible screen and the mounting device ; and conducting a bending performance detection to the flexible screen , characterized in that the conducting (S120) a mechanical extrusion test to the flexible screen comprises mechanical extrusion, via a regulating device, for a plurality of preset extrusion points on the flexible screen respectively. connecting (S110) the flexible screen to amounting device ; conducting (S120) a mechanical extrusion test to the flexible screen to bend the flexible screen by placing an extrusion point for the mechanical extrusion test away from connection points between the flexible screen and the mounting device ; and conducting a bending performance detection to the flexible screen , characterized in that the conducting (S120) a mechanical extrusion test to the flexible screen comprises mechanical extrusion, via a regulating device, for a plurality of preset extrusion points on the flexible screen respectively.
A child safety seat, characterized in that it comprises a headrest frame assembly and a seat frame assembly, and the said seat frame assembly is matedly connected with the headrest frame assembly; The said headrest frame assembly includes a headrest frame , the inner wall of the said headrest frame is provided with headrest polyurethane soft foam , the said headrest polyurethane soft foam extends toward the outer wall of both sides of the headrest frame to form an everted rim, and the outer wall of the said headrest frame is provided with a headrest shell ; The said seat frame assembly includes a seat frame , the inner wall of the said seat frame is provided with seat polyurethane soft foam, the said seat polyurethane soft foam extends toward the outer wall of both sides of the seat frame to form an everted rim, and the outer wall of the said seat frame is provided with a seat shell ; Both the headrest polyurethane soft foam and the seat polyurethane soft foam are covered with a surface layer .
Antenna for a motor vehicle, comprising at least: - a mounting plate made of a metallic material and devised to be connected to a mounting surface of said motor vehicle; - at least one radiating element ; - a first cover connected to said mounting plate , said first cover comprising at least a first hollow portion devised to accommodate inside the first hollow portion , at least partially, at least said at least one radiating element ; and - a gasket made of a flexible material, the antenna being characterized in that said gasket comprises a first portion which is shaped geometrically, conjugated with and is coupled to the mounting plate , and a second portion which extends anteriorly from the first portion and on which there are provided at least first mechanical coupling means mechanically coupled with corresponding mechanical coupling means provided on the first cover . - a mounting plate made of a metallic material and devised to be connected to a mounting surface of said motor vehicle; - at least one radiating element ; - a first cover connected to said mounting plate , said first cover comprising at least a first hollow portion devised to accommodate inside the first hollow portion , at least partially, at least said at least one radiating element ; and - a gasket made of a flexible material, the antenna being characterized in that said gasket comprises a first portion which is shaped geometrically, conjugated with and is coupled to the mounting plate , and a second portion which extends anteriorly from the first portion and on which there are provided at least first mechanical coupling means mechanically coupled with corresponding mechanical coupling means provided on the first cover .
Coloured, transparent, lithium aluminium silicate glass-ceramic, characterized by an As 2 O 3 and/or Sb 2 O 3 content of in total 0 - < 1000 ppm, a V 2 O 5 content of 55 ppm to 200 ppm, an Fe 2 O 3 content of 450 ppm to 1000 ppm, with a ratio of Fe 2 O 3 / V 2 O 5 (both in wt%) of 3 - 9 and with freedom, barring impurities, from CoO, NiO and Cr 2 O 3 , and also by the following transmission qualities: Y (D65, 2°) 2.5 - 10 % τ (at 465 nm) > 1.0% with a difference (Y (D65, 2°) - τ (at 465 nm) ) of ≤ 3%. Y (D65, 2°) 2.5 - 10 % τ (at 465 nm) > 1.0% with a difference (Y (D65, 2°) - τ (at 465 nm) ) of ≤ 3%.
A task processing method, performed by a task control server in a task control system, the task control system including the task control server and a blockchain network having a smart contract function, the method comprising: receiving (S201) a task published by a task publisher device and an electronic resource allocated for execution of the task; transmitting (S202) the task and the electronic resource to a first node of the blockchain network, to enable the first node of the blockchain network to construct a smart contract corresponding to the task and the electronic resource, and synchronously update the smart contract corresponding to the received task to the other nodes in the blockchain network, wherein the first node is any node of the blockchain network; transmitting the task to a task invitee device, to enable the task invitee device to execute the task; receiving (S203) an execution result corresponding to the task transmitted by the task invitee device after the task invitee device executes the task; and transmitting (S204) the execution result to a second node of the blockchain network, to enable the second node of the blockchain network to perform verification on the execution result according to the smart contract, wherein the second node is any node of the blockchain network; and transferring (S204) the electronic resource to the task invitee device according to a verification result. receiving (S201) a task published by a task publisher device and an electronic resource allocated for execution of the task; transmitting (S202) the task and the electronic resource to a first node of the blockchain network, to enable the first node of the blockchain network to construct a smart contract corresponding to the task and the electronic resource, and synchronously update the smart contract corresponding to the received task to the other nodes in the blockchain network, wherein the first node is any node of the blockchain network; transmitting the task to a task invitee device, to enable the task invitee device to execute the task; receiving (S203) an execution result corresponding to the task transmitted by the task invitee device after the task invitee device executes the task; and transmitting (S204) the execution result to a second node of the blockchain network, to enable the second node of the blockchain network to perform verification on the execution result according to the smart contract, wherein the second node is any node of the blockchain network; and transferring (S204) the electronic resource to the task invitee device according to a verification result.
A method by a master base station, MeNB , for allocating an aggregate maximum bit rate, AMBR, of a user equipment, UE , comprising: receiving, from a mobility management entity, MME, an AMBR of a UE , UE-AMBR; and receiving , from a secondary base station, SeNB , information for allocating an AMBR of the SeNB ; and allocating the AMBR of the SeNB according to the information, wherein a sum of the AMBRs of the MeNB and the SeNB is not greater than the UE-AMBR, and characterised in that , the information for allocating the AMBR of the SeNB includes at least one of a quality of service requirement of a non-guaranteed bit rate, non-GBR, service bearer established on the SeNB , or a current aggregate bit rate of the non-GBR service on the SeNB . receiving, from a mobility management entity, MME, an AMBR of a UE , UE-AMBR; and receiving , from a secondary base station, SeNB , information for allocating an AMBR of the SeNB ; and allocating the AMBR of the SeNB according to the information, wherein a sum of the AMBRs of the MeNB and the SeNB is not greater than the UE-AMBR, and characterised in that , the information for allocating the AMBR of the SeNB includes at least one of a quality of service requirement of a non-guaranteed bit rate, non-GBR, service bearer established on the SeNB , or a current aggregate bit rate of the non-GBR service on the SeNB .
A vehicle headlight having at least one laser light source , whose laser beam is deflected onto a lighting surface having a light-conversion phosphor via a micromirror that can be pivoted about at least one axis in order to generate a light image on said lighting surface in a scanning manner, which light image can be projected onto a roadway via an optics unit , characterised in that at least one photosensor is positioned with respect to the lighting surface having the light-conversion phosphor such that the photosensor detects a secondary laser beam emitted from the lighting surface in predetermined deflection positions of the micromirror , which deflection positions correspond to a deflection angle (φ), and is designed to emit a signal (s), which signal (s) serves as a synchronisation signal for the laser modulation, wherein the signal (s) serves as a synchronization signal of the laser modulation and for checking the integrity of the phosphor conversion layer.
A method for producing a pipe material , comprising: an insertion step of inserting a mandrel into a pipe material ; a bending processing step of performing bending processing on the pipe material into which the mandrel is inserted; the method being characterized in that it further comprises: an injection step of injecting dry ice powder into the pipe material . an insertion step of inserting a mandrel into a pipe material ; a bending processing step of performing bending processing on the pipe material into which the mandrel is inserted;
A method for making a skin moisturizing formulation, comprising: providing a dermatologically acceptable vehicle; selecting a skin moisturizing agent based on its ability to absorb and retain moisture, wherein the skin moisturizing agent selected is a cationic dextran polymer, comprising a dextran polymer functionalized with quaternary ammonium groups; providing the selected skin moisturizing agent; combining the dermatologically acceptable vehicle and the skin moisturizing agent to form a skin moisturizing formulation; wherein the skin moisturizing formulation contains 0.05 to 10 wt%, based on weight of the skin moisturizing formulation, of the skin moisturizing agent; wherein the skin moisturizing formulation is a leave on skin care formulation selected from the group consisting of a color cosmetic, a lotion, a sunscreen and a cream; wherein the dermatologically acceptable vehicle is selected from the group consisting of an aqueous emulsion; wherein the selected skin moisturizing agent has a Kjeldahl nitrogen content corrected for ash and volatiles, TKN, of 1.0 to 4.0 wt%, measured using a Buchi KjelMaster K-375 automated analyzer, corrected for volatiles and ash measured as described in ASTM method D-2364; wherein the dextran polymer is a branched chain dextran polymer and wherein the dextran polymer has a weight average molecular weight of 145,000 to 525,000 Daltons. providing a dermatologically acceptable vehicle; selecting a skin moisturizing agent based on its ability to absorb and retain moisture, wherein the skin moisturizing agent selected is a cationic dextran polymer, comprising a dextran polymer functionalized with quaternary ammonium groups; providing the selected skin moisturizing agent; combining the dermatologically acceptable vehicle and the skin moisturizing agent to form a skin moisturizing formulation; wherein the skin moisturizing formulation contains 0.05 to 10 wt%, based on weight of the skin moisturizing formulation, of the skin moisturizing agent; wherein the skin moisturizing formulation is a leave on skin care formulation selected from the group consisting of a color cosmetic, a lotion, a sunscreen and a cream; wherein the dermatologically acceptable vehicle is selected from the group consisting of an aqueous emulsion; wherein the selected skin moisturizing agent has a Kjeldahl nitrogen content corrected for ash and volatiles, TKN, of 1.0 to 4.0 wt%, measured using a Buchi KjelMaster K-375 automated analyzer, corrected for volatiles and ash measured as described in ASTM method D-2364; wherein the dextran polymer is a branched chain dextran polymer and wherein the dextran polymer has a weight average molecular weight of 145,000 to 525,000 Daltons.
A stretchable laminate, comprising: an elastomer layer; and an olefin-based resin layer arranged on at least one side of the elastomer layer, wherein when the stretchable laminate is bonded and fixed onto a glass plate in a state of being extended by 100%, and 0.5 mL of a baby oil as specified in the description is dropped onto a surface of the stretchable laminate, the stretchable laminate is free of a hole 60 minutes after the dropping; the stretchable laminate is produced by co-extrusion, wherein co-extrusion is conducted by a method involving molding the laminate with a multilayer extrusion T-die molding machine or by an inflation method; the olefin-based resin layer contains a non-elastomeric olefin-based resin; and a content of the non-elastomeric olefin-based resin in the olefin-based resin layer is from 70 wt% to 100 wt%. an elastomer layer; and an olefin-based resin layer arranged on at least one side of the elastomer layer, wherein when the stretchable laminate is bonded and fixed onto a glass plate in a state of being extended by 100%, and 0.5 mL of a baby oil as specified in the description is dropped onto a surface of the stretchable laminate, the stretchable laminate is free of a hole 60 minutes after the dropping; the stretchable laminate is produced by co-extrusion, wherein co-extrusion is conducted by a method involving molding the laminate with a multilayer extrusion T-die molding machine or by an inflation method; the olefin-based resin layer contains a non-elastomeric olefin-based resin; and a content of the non-elastomeric olefin-based resin in the olefin-based resin layer is from 70 wt% to 100 wt%.
A laser welding system , comprising: a laser source configured to produce at least one laser beam; beam modifying means , preferably a diffractive optical element, configured to split the at least one laser beam; directing means ; optionally, impingement means configured to apply a force to a target ; and characterised by : controlling means configured to control the directing means to: cause the split laser beam to form at least three heat source points on the target , the at least three heat source points comprising two or more subsidiary heat source points , and at least one primary heat source point positioned between the two or more subsidiary heat source points , the at least one primary heat source point having higher power than the subsidiary heat source points , the heat source points maintaining a linear profile , and move the at least three heat source points in a travel direction along the target , wherein the linear profile forms a predetermined, oblique angle (α) relative to the travel direction. a laser source configured to produce at least one laser beam; beam modifying means , preferably a diffractive optical element, configured to split the at least one laser beam; directing means ; optionally, impingement means configured to apply a force to a target ; controlling means configured to control the directing means to: cause the split laser beam to form at least three heat source points on the target , the at least three heat source points comprising two or more subsidiary heat source points , and at least one primary heat source point positioned between the two or more subsidiary heat source points , the at least one primary heat source point having higher power than the subsidiary heat source points , the heat source points maintaining a linear profile , and move the at least three heat source points in a travel direction along the target , wherein the linear profile forms a predetermined, oblique angle (α) relative to the travel direction.