mhurhangee/patent-ind-claim-en huggingface dataset:
Commercial vehicle tyre of radial design with an at least three-ply belt , wherein each belt ply of the belt has a reinforcing element ply with steel cords as the reinforcing elements, which are arranged substantially parallel to one another within the reinforcing element ply , and a rubber coating embedding the reinforcing element ply , wherein the belt has, as the radially outermost ply, a protective ply with the first reinforcing element ply and, as viewed radially inwards from the protective ply, a working ply with the second reinforcing element ply and a working ply with the third reinforcing element ply , and wherein the distance D between the first reinforcing element ply and the second reinforcing element ply and the distance d between the reinforcing element plies of the two working plies satisfy the relationship 4.5 × d ≥ D ≥ 2 × d, preferably the relationship 3.3 × d ≥ D ≥ 2.7 × d, wherein the distances are measured in the axial centre of the tyre, characterized in that the reinforcing elements of each belt ply of the belt enclose an angle of at least 15° with the tyre circumferential direction, and in that the rubber coating of the protective ply and/or the rubber coating of the radially outer working ply is/are formed asymmetrically with respect to the reinforcing element ply of the respective belt ply, wherein the rubber coating on the side of the reinforcing element ply of the asymmetrically rubber-coated belt ply, the rubber coating thickness of which contributes to the distance D, has a greater rubber coating thickness than on the respective other side of the reinforcing element ply .
An instrument for operating on a medullary canal for installation of a prosthetic stem component in a patient, comprising: a handle including an elongated shaft extending approximately in a negative z-direction; a first offset capable of extending in a first direction that includes an x-directional component or a negative x-directional component; a second offset extending in a second direction that includes a negative y-directional component; the handle connected to either the first or second offset; an insertion member extending from either the first offset or the second offset in an insertion member direction that includes a negative z-directional component; wherein the negative y-directional component and negative z-directional components are orthogonal to each other and orthogonal to the x-directional component and the negative x-directional component, wherein the handle and the insertion member are positioned with respect to one another in a non-planar relationship; and characterised in that one of the offsets is connected to the handle via a pivot capable of rotating relative to the handle such that one of the offsets extends in approximately an x-direction or a negative x-direction in order to configure the instrument for use with a right leg or a left leg of the patient. a handle including an elongated shaft extending approximately in a negative z-direction; a first offset capable of extending in a first direction that includes an x-directional component or a negative x-directional component; a second offset extending in a second direction that includes a negative y-directional component; the handle connected to either the first or second offset; an insertion member extending from either the first offset or the second offset in an insertion member direction that includes a negative z-directional component; wherein the negative y-directional component and negative z-directional components are orthogonal to each other and orthogonal to the x-directional component and the negative x-directional component, wherein the handle and the insertion member are positioned with respect to one another in a non-planar relationship; and characterised in that one of the offsets is connected to the handle via a pivot capable of rotating relative to the handle such that one of the offsets extends in approximately an x-direction or a negative x-direction in order to configure the instrument for use with a right leg or a left leg of the patient.
A substrate processing method, comprising: - coating the surface of a substrate (T20) with a polysilazane solution; - pre-baking the substrate (T30) coated with the polysilazane solution by heating the substrate at the temperature of about 70° to 250°C where the solvent is removed from the polysilazane solution used for coating the surface of the substrate forming a substrate having a pre-baked film containing a silazane bond; - loading the substrate (S10) having a pre-baked film containing a silazane bond into a processing vessel; - heating the substrate to a first temperature (S20); - supplying a process gas to the heated substrate (S30), and - heating the substrate to which the process gas has been supplied to a second temperature (S40) which is higher than the first temperature and less than or equal to a temperature at which the pre-bake has been performed, wherein • the process gas is a hydrogen peroxide gas; • - in the heating of the substrate to the first temperature (S20) and supplying the process gas to the heated substrate (S30) - an oxygen-containing gas is supplied to the substrate at a first flow rate; • - (S40) before the substrate is heated to the second temperature or simultaneously with heating the substrate - the oxygen-containing gas is supplied thereto at a second flow rate larger than the first flow rate; • as the oxygen-containing gas, a gas containing at least one of oxygen (O 2 ) gas, ozone gas (O 3 ) gas, and nitrous oxide (NO) gas is used. - coating the surface of a substrate (T20) with a polysilazane solution; - pre-baking the substrate (T30) coated with the polysilazane solution by heating the substrate at the temperature of about 70° to 250°C where the solvent is removed from the polysilazane solution used for coating the surface of the substrate forming a substrate having a pre-baked film containing a silazane bond; - loading the substrate (S10) having a pre-baked film containing a silazane bond into a processing vessel; - heating the substrate to a first temperature (S20); - supplying a process gas to the heated substrate (S30), and - heating the substrate to which the process gas has been supplied to a second temperature (S40) which is higher than the first temperature and less than or equal to a temperature at which the pre-bake has been performed, • the process gas is a hydrogen peroxide gas; • - in the heating of the substrate to the first temperature (S20) and supplying the process gas to the heated substrate (S30) - an oxygen-containing gas is supplied to the substrate at a first flow rate; • - (S40) before the substrate is heated to the second temperature or simultaneously with heating the substrate - the oxygen-containing gas is supplied thereto at a second flow rate larger than the first flow rate; • as the oxygen-containing gas, a gas containing at least one of oxygen (O 2 ) gas, ozone gas (O 3 ) gas, and nitrous oxide (NO) gas is used.
A soluble insulin preparation comprising: • NεB29-hexadecandioyl-γ-Glu-(desB30) human insulin in a concentration from 1800 nmol/ml to 4200 nmol/ml, • Zinc ions in a concentration from 4.0 Zn/6lns to 7.0 Zn/6lns, • Niacinamide in a concentration from 110 mM to 220 mM or treprostinil in a concentration from 0.02 μg/ml to 1 μg/ml, • Citrate in a concentration from 6 mM to 40 mM, and • pH in the range from 7.0 to 8.0. • NεB29-hexadecandioyl-γ-Glu-(desB30) human insulin in a concentration from 1800 nmol/ml to 4200 nmol/ml, • Zinc ions in a concentration from 4.0 Zn/6lns to 7.0 Zn/6lns, • Niacinamide in a concentration from 110 mM to 220 mM or treprostinil in a concentration from 0.02 μg/ml to 1 μg/ml, • Citrate in a concentration from 6 mM to 40 mM, and • pH in the range from 7.0 to 8.0.
Housing, especially for an exhaust system of an internal combustion engine of a vehicle, comprising at least two housing shell areas connected to one another in at least one folded connection area , wherein to provide the folded connection area , each housing shell area comprises a folded edge area , which extends in a folded edge longitudinal direction (L), and a plurality of crimped sections , which extend essentially at right angles to the folded edge longitudinal direction (L) away from the folded edge area and are arranged at spaced locations from one another to provide an intermediate space in the folded edge longitudinal direction (L), wherein at least part of the crimped sections of each of the housing shell areas engage a respective intermediate space formed between two crimped sections of the respective other housing shell area and overlaps the folded edge area of this other housing shell area such that the folded edge area of this other housing shell area is held between the crimped sections overlapping this and the folded edge area of the housing shell area having these crimped sections , characterized in that in at least one housing shell area , the folded edge area has a crimped section receiving recess associated with at least one intermediate space formed between crimped sections following each in the folded edge longitudinal direction (L), in the folded edge longitudinal direction (L) between the two crimped sections forming the intermediate space between each other, on its side facing away from the folded edge area of the respective other housing shell area .
A battery pack, comprising: a plurality of serially coupled mixed cells, each cell comprising a first cell and a second cell coupled to the first cell in parallel wherein the first cell has a higher capacity than the second cell, wherein the first cell has a higher internal resistance than the second cell and discharge power of the first cell is larger than discharge power of the second cell, wherein a difference between the internal resistance of first cell and the internal resistance of the second cell is from about 0.5mΩ to about 1mΩ. a plurality of serially coupled mixed cells, each cell comprising a first cell and a second cell coupled to the first cell in parallel wherein the first cell has a higher capacity than the second cell, wherein the first cell has a higher internal resistance than the second cell and discharge power of the first cell is larger than discharge power of the second cell, wherein a difference between the internal resistance of first cell and the internal resistance of the second cell is from about 0.5mΩ to about 1mΩ.
A method, comprising: positioning a mold relative to a substrate (12/22/112); injecting a composition (14/114) including a hydrophilic polymer between the mold and the substrate (12/22/112) and overmolding the composition (14/114) onto a surface of the substrate (12/22/112) in an overmolded configuration corresponding to a configuration defined by the mold, the composition being a therapeutic composition overmolded onto the substrate for delivery of the composition to teeth and/or oral tissue; and separating the mold from the substrate (12/22/112) while substantially retaining the composition (14/114) in the overmolded configuration. positioning a mold relative to a substrate (12/22/112); injecting a composition (14/114) including a hydrophilic polymer between the mold and the substrate (12/22/112) and overmolding the composition (14/114) onto a surface of the substrate (12/22/112) in an overmolded configuration corresponding to a configuration defined by the mold, the composition being a therapeutic composition overmolded onto the substrate for delivery of the composition to teeth and/or oral tissue; and separating the mold from the substrate (12/22/112) while substantially retaining the composition (14/114) in the overmolded configuration.
A method in a network, the method comprising: subscribing, by an application service, to a trigger for a Mobility Management Entity, MME , or a serving General Packet Radio Service , GPRS, support node , SGSN , wherein the trigger is associated with one or more operations to be performed by the MME or the SGSN respectively to perform deactivating a power saving mode, PSM, for a user equipment, UE , receiving, by the MME or the SGSN , a Tracking Area Update, TAU, for a UE or a Routing Area Update, RAU, for the UE respectively in response to receiving the TAU or RAU for the UE, the MME or SGSN respectively deactivating the PSM for the UE upon deactivation of the PSM for the UE , communicating by the MME or the SGSN respectively an indication to the application service that the UE is available to receive data; and communicating the data to the UE from the application service upon receiving the indication. subscribing, by an application service, to a trigger for a Mobility Management Entity, MME , or a serving General Packet Radio Service , GPRS, support node , SGSN , wherein the trigger is associated with one or more operations to be performed by the MME or the SGSN respectively to perform deactivating a power saving mode, PSM, for a user equipment, UE , receiving, by the MME or the SGSN , a Tracking Area Update, TAU, for a UE or a Routing Area Update, RAU, for the UE respectively in response to receiving the TAU or RAU for the UE, the MME or SGSN respectively deactivating the PSM for the UE upon deactivation of the PSM for the UE , communicating by the MME or the SGSN respectively an indication to the application service that the UE is available to receive data; and communicating the data to the UE from the application service upon receiving the indication.
A method for operating a temperature control system having a ventilation subsystem and a cooling subsystem , the method comprising: monitoring an indoor temperature of a structure; monitoring an outdoor temperature of ambient air outside of the structure; defining a first time range and a second time range, wherein the second time range comprises a duration less than the first time range; associating one or more operating parameters of the ventilation subsystem and the cooling subsystem with the first time range; associating one or more operating parameters of the ventilation subsystem and the cooling subsystem with the second time range; monitoring operational time and operational load of the cooling subsystem for the first time range characterized by ; predicting a space temperature and an outdoor air temperature for a subsequent time period; and controlling the ventilation subsystem during the second time range based upon the monitored operational time and operational load of the cooling subsystem for the first time range, the monitored interior and exterior temperatures, the predicted space temperature, the predicted outdoor air temperature, and the one or more operating parameters of the cooling subsystem associated with the second time range. monitoring an indoor temperature of a structure; monitoring an outdoor temperature of ambient air outside of the structure; defining a first time range and a second time range, wherein the second time range comprises a duration less than the first time range; associating one or more operating parameters of the ventilation subsystem and the cooling subsystem with the first time range; associating one or more operating parameters of the ventilation subsystem and the cooling subsystem with the second time range; monitoring operational time and operational load of the cooling subsystem for the first time range characterized by ; predicting a space temperature and an outdoor air temperature for a subsequent time period; and controlling the ventilation subsystem during the second time range based upon the monitored operational time and operational load of the cooling subsystem for the first time range, the monitored interior and exterior temperatures, the predicted space temperature, the predicted outdoor air temperature, and the one or more operating parameters of the cooling subsystem associated with the second time range.
Protection and monitoring device for a liquid dielectric transformer enclosed in an airtight tank , the device comprising at least one electromechanical safety contactor of which the switching is intended to cause the instantaneous opening of a circuit breaker of the transformer , the device comprising: - a circuit (D) for detecting the switching of the electromechanical contactor ; - an electronic measurement unit which is connected to the detection circuit (D) and configured to trace the occurrence of a switching event; the device being characterized in that the detection circuit comprises a current transformer which is configured to measure the current flowing into the electromechanical contactor by detecting a variation in the magnetic field that is likely to occur when the electromechanical contactor switches. - a circuit (D) for detecting the switching of the electromechanical contactor ; - an electronic measurement unit which is connected to the detection circuit (D) and configured to trace the occurrence of a switching event;
A headgear assembly for a patient interface of a respiratory system, wherein the headgear assembly comprises: at least one strap to wrap around a user's head; and a yoke connected to ends of the at least one strap , wherein the yoke comprises: a first layer of fabric and a second layer of fabric , at least one opening arranged between the first layer of fabric and second layer of fabric , an aperture providing access to each opening , and one or more loops formed by the second layer of fabric , wherein at least one of the one or more loops forms the aperture configured to receive and hold a retention member or arm of a frame of the patient interface . at least one strap to wrap around a user's head; and a yoke connected to ends of the at least one strap , wherein the yoke comprises: a first layer of fabric and a second layer of fabric , a first layer of fabric and a second layer of fabric , at least one opening arranged between the first layer of fabric and second layer of fabric , an aperture providing access to each opening , and one or more loops formed by the second layer of fabric , wherein at least one of the one or more loops forms the aperture configured to receive and hold a retention member or arm of a frame of the patient interface .
A tissue illumination system comprising: at least one radiation source configured to generate dual-colored radiation with: first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1 ; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2 ; and a radiation delivery unit configured to deliver the first radiation and the second radiation towards tissue of a subject; wherein an intensity ratio of the first intensity relative to the second intensity is between 0.2 and 1; and wherein the peak wavelength λ 1 of the first wavelength band and the peak wavelength λ 2 of the second wavelength band are selected such that they satisfy the following relationships: { 640 ≤ λ 1 ≤ 740 nm 470 ≤ λ 2 ≤ 530 nm λ 1 ≥ 3816 λ 2 − 425 + 594 nm λ 1 ≤ 7694 λ 2 − 425 + 594 nm ; and wherein the first radiation and the second radiation each has a spectral full-width-at-half-maximum of between 40 nm and 150 nm. at least one radiation source configured to generate dual-colored radiation with: first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1 ; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2 ; and first radiation in a first wavelength band at a first intensity, the first radiation having a peak wavelength, λ 1 ; and second radiation in a second wavelength band at a second intensity, the second radiation having a peak wavelength, λ 2 ; and a radiation delivery unit configured to deliver the first radiation and the second radiation towards tissue of a subject; wherein an intensity ratio of the first intensity relative to the second intensity is between 0.2 and 1; and wherein the peak wavelength λ 1 of the first wavelength band and the peak wavelength λ 2 of the second wavelength band are selected such that they satisfy the following relationships: { 640 ≤ λ 1 ≤ 740 nm 470 ≤ λ 2 ≤ 530 nm λ 1 ≥ 3816 λ 2 − 425 + 594 nm λ 1 ≤ 7694 λ 2 − 425 + 594 nm ; and wherein the first radiation and the second radiation each has a spectral full-width-at-half-maximum of between 40 nm and 150 nm.
A resin sheet comprising: an epoxy resin comprising an epoxy resin oligomer and an epoxy resin monomer; a curing agent; and an inorganic filler, wherein a content of the inorganic filler is more than 30% by volume but less than 80% by volume, and wherein the epoxy resin oligomer comprises a reaction product of an epoxy resin monomer having a mesogen skeleton, with a divalent phenolic compound having a structure in which two hydroxyl groups are bound to one benzene ring. an epoxy resin comprising an epoxy resin oligomer and an epoxy resin monomer; a curing agent; and an inorganic filler, wherein a content of the inorganic filler is more than 30% by volume but less than 80% by volume, and wherein the epoxy resin oligomer comprises a reaction product of an epoxy resin monomer having a mesogen skeleton, with a divalent phenolic compound having a structure in which two hydroxyl groups are bound to one benzene ring.
A method of handling an on-off state of a cell for a communication device, the method comprising: receiving information of a number of available DCIs for a first period from a network ; receiving a first DCI in a first subframe in the first period from the network and determining that the first subframe of a cell of the network is in an on state specific to the communication device ; receiving a second DCI in a second subframe in the first period after the first subframe from the network and determining that the second subframe of the cell is in the on state specific to the communication device, if the number of available DCIs is not achieved ; and stopping receiving any DCI in the first period and determining that at least one first subframe of the cell in a rest of the first period is in an off state specific to the communication device, if the number of available DCIs is achieved . receiving information of a number of available DCIs for a first period from a network ; receiving a first DCI in a first subframe in the first period from the network and determining that the first subframe of a cell of the network is in an on state specific to the communication device ; receiving a second DCI in a second subframe in the first period after the first subframe from the network and determining that the second subframe of the cell is in the on state specific to the communication device, if the number of available DCIs is not achieved ; and stopping receiving any DCI in the first period and determining that at least one first subframe of the cell in a rest of the first period is in an off state specific to the communication device, if the number of available DCIs is achieved .