mhurhangee/ep-ind-claims huggingface dataset:
A pant-type disposable wearing article having a longitudinal direction, a transverse direction being orthogonal to said longitudinal direction, a skin-facing side and a non-skin-facing side, comprising a front waist region, a rear waist region and a crotch region extending between said front and rear waist regions, wherein: at least one of said front and rear waist regions comprises an inner sheet lying on the skin-facing side and an outer sheet lying on the non-skin-facing side wherein said inner sheet has contractile force higher than that of said outer sheet at least in said transverse direction; opposite lateral sections of said inner and outer sheets are permanently bonded together; arrays of side seam spots are provided, which extend in said longitudinal direction and join the front and rear waist regions to one another; and opposite lateral sections of said front and rear waist regions extend outward in said transverse direction from said arrays of side seam spots to form respective pairs of front and rear flaps, which are curled inwardly so as to define protruding rims outside said arrays of side seam spots. at least one of said front and rear waist regions comprises an inner sheet lying on the skin-facing side and an outer sheet lying on the non-skin-facing side wherein said inner sheet has contractile force higher than that of said outer sheet at least in said transverse direction; opposite lateral sections of said inner and outer sheets are permanently bonded together; arrays of side seam spots are provided, which extend in said longitudinal direction and join the front and rear waist regions to one another; and opposite lateral sections of said front and rear waist regions extend outward in said transverse direction from said arrays of side seam spots to form respective pairs of front and rear flaps, which are curled inwardly so as to define protruding rims outside said arrays of side seam spots.
A method for growing a light emitting device, the method comprising: growing a light emitting device structure on a growth substrate using a metal-organic chemical vapor deposition (MOCVD), the light emitting device structure including a n-type region, a light emitting region and a p-type region; and growing at least a portion of a hydrogen-free layer of a tunnel junction on the light emitting device structure by using at least one of remote plasma chemical vapor deposition (RP-CVD) and sputtering deposition. growing a light emitting device structure on a growth substrate using a metal-organic chemical vapor deposition (MOCVD), the light emitting device structure including a n-type region, a light emitting region and a p-type region; and growing at least a portion of a hydrogen-free layer of a tunnel junction on the light emitting device structure by using at least one of remote plasma chemical vapor deposition (RP-CVD) and sputtering deposition.
Method, implemented by a device, for joining a network, the device comprising a memory and storing an application cryptographic key (AppKey) in said memory, the method comprising the following steps: - testing (E1; E1') for the absence from or presence in the memory of a cryptographic key (NwkMKey; NwkKey) associated with the network; - in case of absence of the cryptographic key (NwkMKey; NwkKey) associated with the network, sending a request (REQ') to join the network and receiving in return derivation data (AppNonce) produced by an application server and encrypted by means of the application cryptographic key (AppKey); - in case of presence of the cryptographic key (NwkMKey; NwkKey) associated with the network, sending a request to join the network and receiving in return derivation data (NwkNonce) produced by a server associated with the network and encrypted by means of a network cryptographic key (NwkKey) equal to, or derived from, the cryptographic key (NwkMKey; NwkKey) associated with the network; - deriving (E32; E76) an application session key (AppSKey) on the basis of the application cryptographic key (AppKey) and of the received derivation data (AppNonce; NwkNonce). - testing (E1; E1') for the absence from or presence in the memory of a cryptographic key (NwkMKey; NwkKey) associated with the network; - in case of absence of the cryptographic key (NwkMKey; NwkKey) associated with the network, sending a request (REQ') to join the network and receiving in return derivation data (AppNonce) produced by an application server and encrypted by means of the application cryptographic key (AppKey); - in case of presence of the cryptographic key (NwkMKey; NwkKey) associated with the network, sending a request to join the network and receiving in return derivation data (NwkNonce) produced by a server associated with the network and encrypted by means of a network cryptographic key (NwkKey) equal to, or derived from, the cryptographic key (NwkMKey; NwkKey) associated with the network; - deriving (E32; E76) an application session key (AppSKey) on the basis of the application cryptographic key (AppKey) and of the received derivation data (AppNonce; NwkNonce).
A polypeptide comprising an epidermal growth factor-like (EGF-like) domain for use in the treatment of: (i) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; and wherein administration is initiated after the semi-acute window after the neuroinjury; (ii) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; administration is initiated at within six hours after the neuroinjury; and the administration continues into a time period more than 72 hours post injury; (iii) an ischemic central nervous system neuroinjury in a mammal, wherein the peptide is administered following neuroinjury in said mammal; and the administration is initiated after the mammal has achieved a complete post-injury ischemic lesion cell death volume; or (iv) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; and wherein administration is initiated during and yet continues after the semi-acute window after the neuroinjury, wherein the EGF-like domain is encoded by the neuregulin -1 gene, -2 gene, -3 gene or -4 gene. (i) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; and wherein administration is initiated after the semi-acute window after the neuroinjury; (ii) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; administration is initiated at within six hours after the neuroinjury; and the administration continues into a time period more than 72 hours post injury; (iii) an ischemic central nervous system neuroinjury in a mammal, wherein the peptide is administered following neuroinjury in said mammal; and the administration is initiated after the mammal has achieved a complete post-injury ischemic lesion cell death volume; or (iv) neuroinjury to a mammal, wherein the polypeptide comprising an epidermal growth factor-like (EGF-like) domain is administered following neuroinjury in said mammal; and wherein administration is initiated during and yet continues after the semi-acute window after the neuroinjury,
A method of forming an ophthalmic lens, the method comprising the steps of: forming an ophthalmic Lens Precursor with a first surface and a second surface via exposure of a reactive mixture to a first actinic radiation through a substrate; wherein the ophthalmic Lens Precursor is a composite object consisting of a Lens Precursor form and a fluent lens reactive media in contact with the Lens Precursor form; wherein the Lens Precursor form is a non-fluent object comprising at least one optical quality surface and wherein the fluent lens reactive media comprises the second surface of the Lens Precursor; wherein the fluent lens reactive media is formed in the course of producing a Lens Precursor form within the volume of reactive mixture; wherein separating the Lens Precursor form and adhered fluent lens reactive media from the volume of reactive mixture used to produce the lens precursor form generates the Lens Precursor; flowing a portion of the fluent lens reactive media during a dwelling period, wherein the flowing step comprises allowing the fluent lens reactive media to spread under the force of gravity and surface forces to achieve a stable entity while the Lens Precursor is placed upright; and exposing the Lens Precursor to an exposure of a second actinic radiation to fix the fluent lens reactive media and form the ophthalmic lens. forming an ophthalmic Lens Precursor with a first surface and a second surface via exposure of a reactive mixture to a first actinic radiation through a substrate; wherein the ophthalmic Lens Precursor is a composite object consisting of a Lens Precursor form and a fluent lens reactive media in contact with the Lens Precursor form; wherein the Lens Precursor form is a non-fluent object comprising at least one optical quality surface and wherein the fluent lens reactive media comprises the second surface of the Lens Precursor; wherein the fluent lens reactive media is formed in the course of producing a Lens Precursor form within the volume of reactive mixture; wherein separating the Lens Precursor form and adhered fluent lens reactive media from the volume of reactive mixture used to produce the lens precursor form generates the Lens Precursor; flowing a portion of the fluent lens reactive media during a dwelling period, wherein the flowing step comprises allowing the fluent lens reactive media to spread under the force of gravity and surface forces to achieve a stable entity while the Lens Precursor is placed upright; and exposing the Lens Precursor to an exposure of a second actinic radiation to fix the fluent lens reactive media and form the ophthalmic lens.
Insert which increases the coefficient of friction, having: a compressible composite support, which comprises: glass and/or ceramic; and also a plastic support in the form of a nonwoven; and a multiplicity of hard cores, each of which - has a volume-equivalent sphere diameter of at least 8 μm; and - is bonded to the composite support by means of an adhesion promoter; and wherein the uncompressed composite support has a thickness in the range from 10 μm to 100 μm; and/or the insert which increases the coefficient of friction has a thickness of less than or equal to 420 μm when the uncompressed composite support is uncompressed. a compressible composite support, which comprises: glass and/or ceramic; and also a plastic support in the form of a nonwoven; and glass and/or ceramic; and also a plastic support in the form of a nonwoven; and a multiplicity of hard cores, each of which - has a volume-equivalent sphere diameter of at least 8 μm; and - is bonded to the composite support by means of an adhesion promoter; and - has a volume-equivalent sphere diameter of at least 8 μm; and - is bonded to the composite support by means of an adhesion promoter; and wherein the uncompressed composite support has a thickness in the range from 10 μm to 100 μm; and/or the insert which increases the coefficient of friction has a thickness of less than or equal to 420 μm when the uncompressed composite support is uncompressed.
A method for personalizing a document blank by way of a graphic to produce a document using an irradiation unit, the document blank comprising a photosensitive layer, at least one optically detectable parameter of the photosensitive layer changing when electromagnetic radiation is applied, the change in the parameter scaling with the energy input into the photosensitive layer, the irradiation unit providing electromagnetic radiation, the energy of the radiation provided by the irradiation unit being settable, comprising the following steps: • providing a monochrome starting graphic; • reducing the brightness values of the monochrome starting graphic to at least two brightness levels (H1, H2, H3,...) to obtain a reduced starting graphic; • dividing the reduced starting graphic into partial graphics (206, 208, 210, 212), each of the partial graphics (206, 208, 210, 212) only including pixels of the same brightness; and • completely reproducing each of the individual partial graphics (206, 208, 210, 212) on the document blank by applying electromagnetic radiation to the photosensitive layer, wherein each brightness level (H1, H2, H3,...) is associated with energy to be introduced into the photosensitive layer, and wherein the energy to be introduced associated with the brightness level (H1, H2, H3,...) of a partial graphic (206, 208, 210, 212) is applied to the photosensitive layer during the reproduction of the partial graphic (206, 208, 210, 212), and wherein the applied graphic is the negative of the starting graphic. • providing a monochrome starting graphic; • reducing the brightness values of the monochrome starting graphic to at least two brightness levels (H1, H2, H3,...) to obtain a reduced starting graphic; • dividing the reduced starting graphic into partial graphics (206, 208, 210, 212), each of the partial graphics (206, 208, 210, 212) only including pixels of the same brightness; and • completely reproducing each of the individual partial graphics (206, 208, 210, 212) on the document blank by applying electromagnetic radiation to the photosensitive layer, wherein each brightness level (H1, H2, H3,...) is associated with energy to be introduced into the photosensitive layer, and wherein the energy to be introduced associated with the brightness level (H1, H2, H3,...) of a partial graphic (206, 208, 210, 212) is applied to the photosensitive layer during the reproduction of the partial graphic (206, 208, 210, 212), and wherein the applied graphic is the negative of the starting graphic.
A reaction mixture for detection of an Eggerthella target nucleic acid and a Prevotella target nucleic acid, the reaction mixture comprising: an Eggerthella-specific oligonucleotide that specifically hybridizes to a target sequence within a target nucleic acid of an Eggerthella species characterized by the presence of a 16S rRNA gene having a nucleobase sequence that is at least 98% identical to the sequence shown in SEQ ID NO: 1, but does not specifically hybridize to a sequence within a nucleic acid from other Eggerthella species, and a Prevotella- specific oligonucleotide that specifically hybridizes to a target sequence within a target nucleic acid of P. amnii, P. disiens, and P. bivia, but does not specifically hybridize to a sequence within a nucleic acid from other Prevotella species. an Eggerthella-specific oligonucleotide that specifically hybridizes to a target sequence within a target nucleic acid of an Eggerthella species characterized by the presence of a 16S rRNA gene having a nucleobase sequence that is at least 98% identical to the sequence shown in SEQ ID NO: 1, but does not specifically hybridize to a sequence within a nucleic acid from other Eggerthella species, and a Prevotella- specific oligonucleotide that specifically hybridizes to a target sequence within a target nucleic acid of P. amnii, P. disiens, and P. bivia, but does not specifically hybridize to a sequence within a nucleic acid from other Prevotella species.
A method of determining time-frequency resource preemption, wherein the method comprises: receiving and reading data of a first service sent by a base station; reading scheduling control data of a second service in a set time period and a set frequency range which correspond with a time-frequency resource occupied by data of the first service that fails to be received, in response to determining that the data of the first service fails to be received, wherein the scheduling control data of the second service comprises a time-frequency resource area occupied by scheduled data of the second service; determining, according to scheduling information carried in the scheduling control data of the second service, whether the time-frequency resource area occupied by the scheduled data of the second service covers a time-frequency resource area occupied by the data of the first service that fails to be received; and determining that the data of the second service preempts the time-frequency resource of the data of the first service, in response to determining that the time-frequency resource area occupied by the scheduled data of the second service covers the time-frequency resource area occupied by the data of the first service that fails to be received. receiving and reading data of a first service sent by a base station; reading scheduling control data of a second service in a set time period and a set frequency range which correspond with a time-frequency resource occupied by data of the first service that fails to be received, in response to determining that the data of the first service fails to be received, wherein the scheduling control data of the second service comprises a time-frequency resource area occupied by scheduled data of the second service; determining, according to scheduling information carried in the scheduling control data of the second service, whether the time-frequency resource area occupied by the scheduled data of the second service covers a time-frequency resource area occupied by the data of the first service that fails to be received; and determining that the data of the second service preempts the time-frequency resource of the data of the first service, in response to determining that the time-frequency resource area occupied by the scheduled data of the second service covers the time-frequency resource area occupied by the data of the first service that fails to be received.
Arrangement for working a tube end, the arrangement comprising an operating cylinder (1, 6) with a piston (2, 3) displaceable along an longitudinal axis, and a tube mounting, wherein a tool holder is provided at an end of the piston (2, 3) facing the tube mounting, wherein the operating cylinder (1, 6) is provided as a tandem cylinder, wherein at least two cylinder stages (1, 6) are offset along the longitudinal axis, and wherein the piston (2, 3) comprises connected piston segments (2, 3), wherein each piston segment (2, 3) is allocated to a cylinder stage (1, 6) characterized in that the piston (2, 3) comprises an anti-twist protection to prevent the piston (2, 3) from twisting relative to the operating cylinder (1, 6). wherein the operating cylinder (1, 6) is provided as a tandem cylinder, wherein at least two cylinder stages (1, 6) are offset along the longitudinal axis, and wherein the piston (2, 3) comprises connected piston segments (2, 3), wherein each piston segment (2, 3) is allocated to a cylinder stage (1, 6) characterized in that the piston (2, 3) comprises an anti-twist protection to prevent the piston (2, 3) from twisting relative to the operating cylinder (1, 6).
A method of processing a device shell that comprises an antenna, comprising: providing a device shell formed of metal material and plastic material and comprising an antenna and a partition of insulating material, wherein the partition forms at least part of the outer surface of the device shell; applying a metal ink layer onto a film layer to form a membrane; adhering the membrane to at least the part of the outer surface of the device shell formed by the partition, the metal ink layer of the membrane being in contact with said outer surface; and removing the film layer from the membrane adhered to the outer surface, so that said outer surface is adhered with the metal ink layer. providing a device shell formed of metal material and plastic material and comprising an antenna and a partition of insulating material, wherein the partition forms at least part of the outer surface of the device shell; applying a metal ink layer onto a film layer to form a membrane; adhering the membrane to at least the part of the outer surface of the device shell formed by the partition, the metal ink layer of the membrane being in contact with said outer surface; and removing the film layer from the membrane adhered to the outer surface, so that said outer surface is adhered with the metal ink layer.
A valve control system for controlling operation of a valve, the valve control system comprising: a gain controller for sending a drive value to a valve actuator to control response time of a valve; a linearization control system coupled with the gain controller to determine a gain value to control the response time of the valve; and a set point filter coupled to the linearization control system to filter a set point value; wherein the linearization control system determines the gain value; and characterised in that the gain value is defined by dY / dx = f'(g(x))g'(x), where Y is a controller drive, f'(g(x)) is an actuator gain, and g'(x) is a valve model gain; in that the valve model gain g'(x) is defined by g'(x) = (Y2 - Y1) / (X2 - X1), where Y1 and Y2 are lift values corresponding to +/-1% of flow rates X1 and X2, and where (X2 - X1) defines the change in flow rate obtained from set point values and actual flow rate measurements; and in that the actuator gain f (g(x)) is the derivative of drive with respect to a predicted lift. a gain controller for sending a drive value to a valve actuator to control response time of a valve; a linearization control system coupled with the gain controller to determine a gain value to control the response time of the valve; and a set point filter coupled to the linearization control system to filter a set point value; wherein the linearization control system determines the gain value; and characterised in that the gain value is defined by dY / dx = f'(g(x))g'(x), where Y is a controller drive, f'(g(x)) is an actuator gain, and g'(x) is a valve model gain; in that the valve model gain g'(x) is defined by g'(x) = (Y2 - Y1) / (X2 - X1), where Y1 and Y2 are lift values corresponding to +/-1% of flow rates X1 and X2, and where (X2 - X1) defines the change in flow rate obtained from set point values and actual flow rate measurements; and in that the actuator gain f (g(x)) is the derivative of drive with respect to a predicted lift.
Process for fluorinating a chlorinated C 3 alkane or alkene compound containing at least one chlorine atom to a fluorinated C 3 alkane or alkene compound containing at least one fluorine atom, comprising the following steps: (a) contacting, in a reactor, the chlorinated compound with hydrogen fluoride in gas phase in the presence of a fluorination catalyst to produce a fluorinated compound, the number of fluorine atoms in the fluorinated compound being greater than the number of fluorine atoms in the chlorinated compound, and (b) regenerating the fluorination catalyst used in step a), where the step (b) of regenerating the fluorination catalyst comprises (c) treating said fluorination catalyst with a gas flow containing an oxidizing agent to form an oxidized fluorination catalyst, and (d) treating the oxidized fluorination catalyst obtained in step (c) with a gaseous mixture comprising a reducing agent and an inert gas, the catalyst regenerated in step b) is reused in step a), the reducing agent is selected from the group consisting of C 1 -C 10 hydrohalocarbons, and said catalyst is selected from the group consisting of chromium oxyfluoride, chromium oxides, chromium halides and mixtures thereof. (a) contacting, in a reactor, the chlorinated compound with hydrogen fluoride in gas phase in the presence of a fluorination catalyst to produce a fluorinated compound, the number of fluorine atoms in the fluorinated compound being greater than the number of fluorine atoms in the chlorinated compound, and (b) regenerating the fluorination catalyst used in step a),