mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin comprising a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer (A-1) and an aromatic vinyl compound-vinyl cyanide compound copolymer (A-2); 0.1 to 32 parts by weight of a polymer having a weight average molecular weight, measured as disclosed in the specification, of greater than 500,000 g/mol and containing an unshared electron pair, wherein the polymer containing the unshared electron pair comprises one or more selected from the group consisting of a poly(ether ester amide) resin, a poly(ether amide) block copolymer, a poly(ester amide) block copolymer, a poly(ether ester) block copolymer, a polyether resin, a polyester resin, and a polyamide resin; 0.1 to 5 parts by weight of an inorganic antibacterial agent comprising one or more carriers selected from the group consisting of phosphate glass, silica gel, calcium phosphate, and zirconium sodium phosphate; and 0.4 to 5 parts by weight of zinc oxide having a BET surface area, measured as disclosed in the specification, of 28 m 2 /g or more. 100 parts by weight of a base resin comprising a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer (A-1) and an aromatic vinyl compound-vinyl cyanide compound copolymer (A-2); 0.1 to 32 parts by weight of a polymer having a weight average molecular weight, measured as disclosed in the specification, of greater than 500,000 g/mol and containing an unshared electron pair, wherein the polymer containing the unshared electron pair comprises one or more selected from the group consisting of a poly(ether ester amide) resin, a poly(ether amide) block copolymer, a poly(ester amide) block copolymer, a poly(ether ester) block copolymer, a polyether resin, a polyester resin, and a polyamide resin; 0.1 to 5 parts by weight of an inorganic antibacterial agent comprising one or more carriers selected from the group consisting of phosphate glass, silica gel, calcium phosphate, and zirconium sodium phosphate; and 0.4 to 5 parts by weight of zinc oxide having a BET surface area, measured as disclosed in the specification, of 28 m 2 /g or more.
An exhaust gas purification system (1, 30), comprising: a catalyst device provided in an exhaust passage of an internal combustion engine and configured to recover a purification capacity of a catalyst by an air-fuel ratio richness control; and a controlling device configured to perform the air-fuel ratio richness control, wherein the controlling device is configured to prohibit the air-fuel ratio richness control, when a catalyst temperature is at or below a preset lower limit catalyst temperature, characterized in that the controlling device is further configured to start the air-fuel ratio richness control, when a first timing where an estimated value of a NOx storage amount has reached a preset enrichment start threshold value and a second timing based on a set interval time set in an enrichment interval time map are both satisfied, and preset an enrichment interval correction coefficient based on the catalyst temperature of the catalyst device and on a storage ratio of the estimated value of the NOx storage amount to an enrichment start threshold value of the NOx storage amount, and correct the second timing by multiplying the set interval time by the enrichment interval correction coefficient. a catalyst device provided in an exhaust passage of an internal combustion engine and configured to recover a purification capacity of a catalyst by an air-fuel ratio richness control; and a controlling device configured to perform the air-fuel ratio richness control, wherein the controlling device is configured to prohibit the air-fuel ratio richness control, when a catalyst temperature is at or below a preset lower limit catalyst temperature, prohibit the air-fuel ratio richness control, when a catalyst temperature is at or below a preset lower limit catalyst temperature, characterized in that the controlling device is further configured to start the air-fuel ratio richness control, when a first timing where an estimated value of a NOx storage amount has reached a preset enrichment start threshold value and a second timing based on a set interval time set in an enrichment interval time map are both satisfied, and preset an enrichment interval correction coefficient based on the catalyst temperature of the catalyst device and on a storage ratio of the estimated value of the NOx storage amount to an enrichment start threshold value of the NOx storage amount, and correct the second timing by multiplying the set interval time by the enrichment interval correction coefficient. start the air-fuel ratio richness control, when a first timing where an estimated value of a NOx storage amount has reached a preset enrichment start threshold value and a second timing based on a set interval time set in an enrichment interval time map are both satisfied, and preset an enrichment interval correction coefficient based on the catalyst temperature of the catalyst device and on a storage ratio of the estimated value of the NOx storage amount to an enrichment start threshold value of the NOx storage amount, and correct the second timing by multiplying the set interval time by the enrichment interval correction coefficient.
Method for an internal combustion engine, wherein the internal combustion engine comprises multiple cylinders, comprising: - detecting a first ion current for each cylinder of at least two cylinders of the multiple cylinders while the internal combustion engine is being operated with a first air-fuel mixture, - detecting a second ion current for each cylinder of at least two cylinders of the multiple cylinders while the internal combustion engine is being operated with a second air-fuel mixture, wherein the first air-fuel mixture and the second air-fuel mixture differ, - determining in each case one ion current difference for each cylinder of at least two cylinders of the multiple cylinders from the first and second ion current of the respective cylinder, and - determining a cylinder uneven distribution in the air-fuel mixture between the at least two cylinders in a manner dependent on the ion current differences of the at least two cylinders. - detecting a first ion current for each cylinder of at least two cylinders of the multiple cylinders while the internal combustion engine is being operated with a first air-fuel mixture, - detecting a second ion current for each cylinder of at least two cylinders of the multiple cylinders while the internal combustion engine is being operated with a second air-fuel mixture, wherein the first air-fuel mixture and the second air-fuel mixture differ, - determining in each case one ion current difference for each cylinder of at least two cylinders of the multiple cylinders from the first and second ion current of the respective cylinder, and - determining a cylinder uneven distribution in the air-fuel mixture between the at least two cylinders in a manner dependent on the ion current differences of the at least two cylinders.
A method for operating a base station in a wireless communication system, the method comprising: identifying a transmission delay time of hybrid automatic repeat request, HARQ, feedback information for an uplink, UL, data packet received from a terminal; determining (203, 213), a transmission beam index for transmitting the HARQ feedback information, based on comparing the identified transmission delay time of the HARQ feedback information for the UL data packet and a preset maximum delay time; determining, based on the transmission beam index, HARQ feedback channel resources for transmitting the HARQ feedback information; and transmitting the HARQ feedback information, based on the determined HARQ feedback channel resources and the transmission beam index. identifying a transmission delay time of hybrid automatic repeat request, HARQ, feedback information for an uplink, UL, data packet received from a terminal; determining (203, 213), a transmission beam index for transmitting the HARQ feedback information, based on comparing the identified transmission delay time of the HARQ feedback information for the UL data packet and a preset maximum delay time; determining, based on the transmission beam index, HARQ feedback channel resources for transmitting the HARQ feedback information; and transmitting the HARQ feedback information, based on the determined HARQ feedback channel resources and the transmission beam index.
An oxyfuel boiler system comprising: an oxygen generator to separate oxygen from air; a coal mill to dry and pulverize coal; a burner to burn the dried and pulverized coal with oxygen generated at the oxygen generator; an after-gas port to which oxygen generated at the oxygen generator is supplied; a boiler provided with the burner and the after-gas port on its wall; a flue introducing combustion exhaust gas from the boiler to the outside of the boiler; a recirculation gas supply pipe having an exhaust gas tapping port disposed in the midway of the flue and supplying recirculation exhaust gas to the coal mill, the burner, and the after-gas port; and an oxygen supply pipe supplying oxygen from the oxygen generator to the burner and the after-gas port, characterized in that the recirculation gas supply pipe has separate flow regulators regulating flow rates of the recirculation exhaust gas supplied to the coal mill, the burner and the after-gas port independently, the oxygen supply pipe has separate flow regulators regulating flow rates of the oxygen supplied to the burner and the after-gas port independently, wherein the exhaust gas tapping port is disposed downstream of a dry dust-removing apparatus arranged in the flue, and there is provided an oxygen controlling apparatus characterised in that said oxygen controlling apparatus is adapted to set a concentration of oxygen supplied from the oxygen generator to the after-gas port in a range between 26% and 28%, and to make the concentration of oxygen to be supplied to the after-gas port lower than that of oxygen to be supplied from the oxygen generator to the burner. an oxygen generator to separate oxygen from air; a coal mill to dry and pulverize coal; a burner to burn the dried and pulverized coal with oxygen generated at the oxygen generator; an after-gas port to which oxygen generated at the oxygen generator is supplied; a boiler provided with the burner and the after-gas port on its wall; a flue introducing combustion exhaust gas from the boiler to the outside of the boiler; a recirculation gas supply pipe having an exhaust gas tapping port disposed in the midway of the flue and supplying recirculation exhaust gas to the coal mill, the burner, and the after-gas port; and an oxygen supply pipe supplying oxygen from the oxygen generator to the burner and the after-gas port, characterized in that
An image heating device for heating a toner image while nip-conveying a recording material, in a nip, on which the toner image is carried, said image heating device comprising: a heating member; and a pressing roller, including a core metal as a shaft, an elastic layer provided on the outer peripheral surface of the core metal, a parting layer provided on the outer peripheral surface of the elastic layer, for forming the nip in contact with said heating member, wherein the elastic layer of said pressing roller includes a thermosetting silicon rubber containing a thermal conductive filler, wherein the thermosetting silicon rubber includes pore portions formed with resin microballoons and a pore connecting portion for connecting the pore portions, and wherein the elastic layer has a thermal conductivity of 0.15 W/mK to 0.5 W/mK, characterized in that a density of the pore portions formed with the resin microballoons of said pressing roller and an amount of addition of the thermal conductive filler are different between a surface-side elastic layer portion and a center-side elastic layer portion with respect to a radial direction of said pressing roller, the center-side elastic portion being at the core metal side, the suface-side elastic layer portion being at the parting layer side, wherein the amount of the resin microballoons is larger and the amount of the thermal conductive filler is smaller at the center-side elastic portion, and the amount of the resin microballoons is smaller and the amount of the thermal conductive filler is larger at the surface-side elastic layer portion. a heating member; and a pressing roller, including a core metal as a shaft, an elastic layer provided on the outer peripheral surface of the core metal, a parting layer provided on the outer peripheral surface of the elastic layer, for forming the nip in contact with said heating member, wherein the elastic layer of said pressing roller includes a thermosetting silicon rubber containing a thermal conductive filler, wherein the thermosetting silicon rubber includes pore portions formed with resin microballoons and a pore connecting portion for connecting the pore portions, and wherein the elastic layer has a thermal conductivity of 0.15 W/mK to 0.5 W/mK, characterized in that a density of the pore portions formed with the resin microballoons of said pressing roller and an amount of addition of the thermal conductive filler are different between a surface-side elastic layer portion and a center-side elastic layer portion with respect to a radial direction of said pressing roller, the center-side elastic portion being at the core metal side, the suface-side elastic layer portion being at the parting layer side, wherein the amount of the resin microballoons is larger and the amount of the thermal conductive filler is smaller at the center-side elastic portion, and the amount of the resin microballoons is smaller and the amount of the thermal conductive filler is larger at the surface-side elastic layer portion.
A method of sealing a filter bag where a filter bag is formed from at least one filtration material piece, the filtration material edges being joined are sewn with a thread and the stitched places are sealed, characterised by the fact that the surface of at least one filtration material edge being joined is covered with a liquid or semi-liquid layer of the sealant, whereupon the filtration material edges are combined to adjoin one another at least on the surface covered with the sealant, and the joined filtration material edges are sewn together after the sealant has been applied,
A method for selecting a euploid embryo having the highest implantation potential for implantation into a uterus for the purposes of in vitro fertilisation by measuring the duration of blastocyst expansion, the method comprising: (a) culturing one or more embryos under conditions sufficient for embryo development; (b) time lapse imaging said one or more embryos to acquire one or more images that are stored digitally, said images comprising one or more image features; (c) analyzing said one or more image features, thereby determining an onset of blastocyst expansion and a resolution of blastocyst expansion to measure the percent of total time spent in expansion or the average time spent in each expansion event; and (d) selecting a euploid embryo having the highest implantation potential. (a) culturing one or more embryos under conditions sufficient for embryo development; (b) time lapse imaging said one or more embryos to acquire one or more images that are stored digitally, said images comprising one or more image features; (c) analyzing said one or more image features, thereby determining an onset of blastocyst expansion and a resolution of blastocyst expansion to measure the percent of total time spent in expansion or the average time spent in each expansion event; and (d) selecting a euploid embryo having the highest implantation potential.
A method executed on a handset for communicating with a message server to register the handset with the message server, the method comprising: transmitting a handset identifier that identifies the handset to the message server; transmitting a return password to the message server via a second communication channel, in response to the handset receiving a temporary password from the message server via a first communication channel; receiving an authentication acknowledgement from the message server in the event the temporary password matches the return password at the message server; upon receiving the authentication acknowledgement from the message server, generating a public key and a corresponding private key using asymmetric key generation; transmitting the public key to the message server; and storing the private key on the handset. transmitting a handset identifier that identifies the handset to the message server; transmitting a return password to the message server via a second communication channel, in response to the handset receiving a temporary password from the message server via a first communication channel; receiving an authentication acknowledgement from the message server in the event the temporary password matches the return password at the message server; upon receiving the authentication acknowledgement from the message server, generating a public key and a corresponding private key using asymmetric key generation; transmitting the public key to the message server; and storing the private key on the handset.
A non-expandable single use pessary device, the pessary device having a top, a base, a length, an outer surface, a longitudinal axis, a maximum diameter (D 1), and a minimum diameter (D 2) that is less than the maximum diameter, the pessary device comprising a pressure region adapted to extend between an anterior vaginal wall and a posterior vaginal wall of a user to provide pressure on the user's urethra through the vaginal wall, the pressure region comprising the maximum diameter, characterised in that the pessary device comprises a usage indicator that is visible to a user viewing the outer surface of the device after the device is removed from the user's vagina.
An image sensor adapted for inspection of products in a production line of a factory, comprising a body module, and a lens module and an imaging module installed in the body module, characterized in that the body module comprises: an acquisition part acquiring imaging element specification information indicating a size of an imaging element in the imaging module from the installed imaging module and acquiring optical system specification information indicating a specification of an optical system in the lens module from the installed lens module; a correction part, to which shading correction information is settable, performing shading correction on image data outputted by the imaging module according to the set shading correction information; and a generation and setting part generating shading correction information corresponding to a combination of the imaging module and the lens module based on the imaging element specification information and the optical system specification information acquired by the acquisition part, and setting the shading correction information to the correction part. an acquisition part acquiring imaging element specification information indicating a size of an imaging element in the imaging module from the installed imaging module and acquiring optical system specification information indicating a specification of an optical system in the lens module from the installed lens module; a correction part, to which shading correction information is settable, performing shading correction on image data outputted by the imaging module according to the set shading correction information; and a generation and setting part generating shading correction information corresponding to a combination of the imaging module and the lens module based on the imaging element specification information and the optical system specification information acquired by the acquisition part, and setting the shading correction information to the correction part.
A through-bore spool apparatus for use in deploying multiple spoolable media in a bore, the through-bore spool apparatus comprising: a first spool comprising a first spool axis and a first spoolable medium wound around the first spool axis; and a second spool comprising a second spool axis and a second spoolable medium wound around the second spool axis; wherein the first and second spoolable media (20, 22) are de-spoolable simultaneously from the respective first and second spools (14, 16) during movement of the through-bore spool apparatus along a bore, wherein the first spool defines an axial passage to accommodate the second spoolable medium to pass therethrough, and wherein the axial passage comprises an entry region to receive the second spoolable medium into the axial passage, and to guide the second spoolable medium to become substantially aligned with the first spool axis. a first spool comprising a first spool axis and a first spoolable medium wound around the first spool axis; and a second spool comprising a second spool axis and a second spoolable medium wound around the second spool axis; wherein the first and second spoolable media (20, 22) are de-spoolable simultaneously from the respective first and second spools (14, 16) during movement of the through-bore spool apparatus along a bore, wherein the first spool defines an axial passage to accommodate the second spoolable medium to pass therethrough, and wherein the axial passage comprises an entry region to receive the second spoolable medium into the axial passage, and to guide the second spoolable medium to become substantially aligned with the first spool axis.
A component (10, 30, 40) which is configured to be joined to a further component (11, 31) in a preselected relative orientation of the component and the further component, wherein the further component has an interface surface (111, 311) and the component is configured to contact the interface surface when joined to the further component; the component comprising: a surface (101, 301, 401) disposed on a side of the component intended to face the interface surface when the component is joined to the further component; a plurality of recesses (12a-c, 32a-d, 42a-d) formed in the surface, wherein each recess has the form of a bore with a preselected depth and a preselected orientation relative to the component, the preselected orientation and the preselected depth being selected in dependence on the preselected relative orientation of the component and the further component; and a plurality of spacer elements (13a-c, 23, 33a-d, 43a-d), each comprising a contact surface (131a-c) configured to contact the interface surface when the component is joined to the further component, and each spacer element being disposed in one of the recesses such that the orientation of a given contact surface is defined by the orientation of the corresponding recess. a surface (101, 301, 401) disposed on a side of the component intended to face the interface surface when the component is joined to the further component; a plurality of recesses (12a-c, 32a-d, 42a-d) formed in the surface, wherein each recess has the form of a bore with a preselected depth and a preselected orientation relative to the component, the preselected orientation and the preselected depth being selected in dependence on the preselected relative orientation of the component and the further component; and a plurality of spacer elements (13a-c, 23, 33a-d, 43a-d), each comprising a contact surface (131a-c) configured to contact the interface surface when the component is joined to the further component, and each spacer element being disposed in one of the recesses such that the orientation of a given contact surface is defined by the orientation of the corresponding recess.