mhurhangee/patent-ind-claim-en huggingface dataset:
A managed wireless distribution network comprising multiple devices including a first device comprising: a content store configured to maintain portions of protected content that can be consumed by a user of the first device if the user of the first device has permission to consume the protected content, and other portions of protected content that the user of the first device is not permitted to consume to make them available to other devices in the managed wireless distribution network, the managed wireless distribution network allowing the portions of protected content to be transferred among the multiple devices in the managed wireless distribution network via wireless networks hosted by the multiple devices regardless of whether the user of the first device has permission to consume the protected content in order to reduce data usage over an Internet connection; and a managed wireless distribution network system configured to configure each of one or more network interface cards of the first device to communicate with the Internet, to host a wireless network that can be joined by other devices of the multiple devices , or to join a wireless network hosted by another of the multiple devices . a content store configured to maintain portions of protected content that can be consumed by a user of the first device if the user of the first device has permission to consume the protected content, and other portions of protected content that the user of the first device is not permitted to consume to make them available to other devices in the managed wireless distribution network, the managed wireless distribution network allowing the portions of protected content to be transferred among the multiple devices in the managed wireless distribution network via wireless networks hosted by the multiple devices regardless of whether the user of the first device has permission to consume the protected content in order to reduce data usage over an Internet connection; and a managed wireless distribution network system configured to configure each of one or more network interface cards of the first device to communicate with the Internet, to host a wireless network that can be joined by other devices of the multiple devices , or to join a wireless network hosted by another of the multiple devices .
A charging member comprising: an electro-conductive support ; and an elastic player ; wherein the elastic layer is a surface layer of the charging member, and is constituted by a mono layer, the elastic layer includes domains and a matrix , the domains each containing carbon black and rubber, the matrix containing rubber and having an electrical resistance higher than that of the domains, an outer surface of the charging member is constituted by a surface of the matrix and surfaces of the domains, and the charging member has concave portions on the outer surface, the domains exist at bottom portions of the respective concave portions and are exposed to the outer surface of the charging member only at the bottom portions of the respective concave portions, the elastic layer has a volume resistivity of 1 × 10 5 Ωcm or more and 1 × 10 8 Ωcm or less, and when A1 is defined as a current value at the time of applying a direct current (DC) voltage of 80 V between the electro-conductive support and a cantilever of an atomic force microscope in contact with a surface of the matrix constituting the outer surface of the charging member and A2 is defined as a current value at the time of applying a DC voltage of 80 V between the electro-conductive support and the cantilever of the atomic force microscope in contact with surfaces of the respective domains constituting the outer surface of the charging member, A1 and A2 being measured according to the description of paragraphs 83 to 86, A2 is 20 times or more of A1. an electro-conductive support ; and an elastic player ; wherein the elastic layer is a surface layer of the charging member, and is constituted by a mono layer, the elastic layer includes domains and a matrix , the domains each containing carbon black and rubber, the matrix containing rubber and having an electrical resistance higher than that of the domains, an outer surface of the charging member is constituted by a surface of the matrix and surfaces of the domains, and the charging member has concave portions on the outer surface, the domains exist at bottom portions of the respective concave portions and are exposed to the outer surface of the charging member only at the bottom portions of the respective concave portions, the elastic layer has a volume resistivity of 1 × 10 5 Ωcm or more and 1 × 10 8 Ωcm or less, and when A1 is defined as a current value at the time of applying a direct current (DC) voltage of 80 V between the electro-conductive support and a cantilever of an atomic force microscope in contact with a surface of the matrix constituting the outer surface of the charging member and A2 is defined as a current value at the time of applying a DC voltage of 80 V between the electro-conductive support and the cantilever of the atomic force microscope in contact with surfaces of the respective domains constituting the outer surface of the charging member, A1 and A2 being measured according to the description of paragraphs 83 to 86, A2 is 20 times or more of A1.
Method for controlling a power component with insulated gate of the transistor type which is able to be controlled between a passing state and a blocking state, comprising the steps consisting of: - starting the passing state by application, during a starting time, of a first voltage (VD), said first voltage being a positive voltage, greater than a conduction threshold of the power component; then - maintaining the passing state by application of a second voltage (VC), said second voltage being a positive voltage, greater than the first voltage, - establishing the blocking state by applying a third voltage (VOFF), said third voltage being strictly negative, characterised in that , a gate of the power component being connected: - via a first switch (TrON), to a first point carried at a first potential such that the difference of potentials between the first point and a reference point corresponds to the first voltage (VD), and a source of the power component being connected: - via a third switch (TR1), to the reference point carried at a third potential; and - via a fourth switch (Tr2), to a second point carried at a second potential such that the difference of potentials between the first point and the second point corresponds to the second voltage (VC), during the starting step, the first and third switches are controlled in the closed state, while the fourth switch is controlled in the open state, and during the step of maintaining in the passing state, the first and fourth switches are controlled in the closed state, while the third switch is controlled in the open state. - starting the passing state by application, during a starting time, of a first voltage (VD), said first voltage being a positive voltage, greater than a conduction threshold of the power component; then - maintaining the passing state by application of a second voltage (VC), said second voltage being a positive voltage, greater than the first voltage, - establishing the blocking state by applying a third voltage (VOFF), said third voltage being strictly negative, - via a first switch (TrON), to a first point carried at a first potential such that the difference of potentials between the first point and a reference point corresponds to the first voltage (VD), - via a third switch (TR1), to the reference point carried at a third potential; and - via a fourth switch (Tr2), to a second point carried at a second potential such that the difference of potentials between the first point and the second point corresponds to the second voltage (VC),
A method of executing an application by a device, the method comprising: executing the application; (S201) storing log information according to the execution of the application, wherein the log information comprises information generated by the execution of the application based on a user's actions or inputs; displaying information for requesting mapping between a short run indicator and application execution information during execution of the application; receiving a mapping request signal (S202) based on the displayed information for requesting the mapping during execution of the application; in response to receiving the mapping request signal, acquiring the application execution information from the stored log information (S203), wherein the acquired application execution information comprises log information corresponding to an execution starting point of the application up to the receiving of the mapping request signal; generating mapping information between the acquired application execution information and the short run indicator (S204), wherein the short run indicator is input or selected by the user for automatically executing the application starting from an execution stage of the application based on the application execution information; and storing the mapping information in at least one of the device (S205) and an externa device (S207). executing the application; (S201) storing log information according to the execution of the application, wherein the log information comprises information generated by the execution of the application based on a user's actions or inputs; displaying information for requesting mapping between a short run indicator and application execution information during execution of the application; receiving a mapping request signal (S202) based on the displayed information for requesting the mapping during execution of the application; in response to receiving the mapping request signal, acquiring the application execution information from the stored log information (S203), wherein the acquired application execution information comprises log information corresponding to an execution starting point of the application up to the receiving of the mapping request signal; generating mapping information between the acquired application execution information and the short run indicator (S204), wherein the short run indicator is input or selected by the user for automatically executing the application starting from an execution stage of the application based on the application execution information; and storing the mapping information in at least one of the device (S205) and an externa device (S207).
A thermally conductive composite comprising: a first metal substrate; a second metal substrate; and a layer of thermal pyrolytic graphite disposed between the first and second metal substrates, wherein the thermal pyrolytic graphite comprises a plurality of layered planes and the graphite is disposed in the composite such that the layered planes are oriented in a direction vertical to the plane of the metal substrates, the first and second metal substrates bonded to the graphite layer and consisting of a metal having a modulus of elasticity of 200 GPa or greater, the metal being selected from (i) tungsten, (ii) molybdenum, (iii) a molybdenum-copper alloy comprising from 10% to 30% copper, or (iv) a tungsten-copper alloy comprising from 10% to 70% copper, the composite having a in-plane coefficient of thermal expansion of 13 ppm/°C or less and a thermal conductivity of 200 W K -1 m -1 or greater. a first metal substrate; a second metal substrate; and a layer of thermal pyrolytic graphite disposed between the first and second metal substrates, wherein the thermal pyrolytic graphite comprises a plurality of layered planes and the graphite is disposed in the composite such that the layered planes are oriented in a direction vertical to the plane of the metal substrates, the first and second metal substrates bonded to the graphite layer and consisting of a metal having a modulus of elasticity of 200 GPa or greater, the metal being selected from (i) tungsten, (ii) molybdenum, (iii) a molybdenum-copper alloy comprising from 10% to 30% copper, or (iv) a tungsten-copper alloy comprising from 10% to 70% copper, the composite having a in-plane coefficient of thermal expansion of 13 ppm/°C or less and a thermal conductivity of 200 W K -1 m -1 or greater.
A method of producing ophthalmic lenses comprising, treating a hydrated polymerized ophthalmic lens with a wetting agent, wherein treating comprises heating the hydrated polymerized ophthalmic lens in a packaging solution comprising 100 ppm to 3,000 ppm of the wetting agent to a temperature of from greater than 50°C to 150°C, provided that the ophthalmic lens formulation does not comprise said wetting agent prior to its polymerization, wherein the wetting agent is polyvinylpyrrolidone, wherein the K-value of the polyvinylpyrrolidone is from K-60 to K-120. wherein the wetting agent is polyvinylpyrrolidone, wherein the K-value of the polyvinylpyrrolidone is from K-60 to K-120.
A composite diffraction element comprising two sets of stack structures , each stack structure including a first diffraction element , a second diffraction element , and a third diffraction element in this order, wherein the second diffraction element diffractively reflects light that has passed through the first diffraction element and reached the second diffraction element, toward the first diffraction element, the first diffraction element diffractively reflects the light diffractively reflected by the second diffraction element, toward the third diffraction element, and the third diffraction element transmits the light diffractively reflected by the first diffraction element, and diffractively reflects zeroth-order light that has passed through the first diffraction element and the second diffraction element, and wherein the two sets of stack structures are stacked. two sets of stack structures , each stack structure including a first diffraction element , a second diffraction element , and a third diffraction element in this order, wherein the second diffraction element diffractively reflects light that has passed through the first diffraction element and reached the second diffraction element, toward the first diffraction element, the first diffraction element diffractively reflects the light diffractively reflected by the second diffraction element, toward the third diffraction element, and the third diffraction element transmits the light diffractively reflected by the first diffraction element, and diffractively reflects zeroth-order light that has passed through the first diffraction element and the second diffraction element, and wherein the two sets of stack structures are stacked.
A building exterior panel comprising: - a front steel plate ; - a rear steel plate spaced apart from the front steel plate in a rear direction of the front steel plate and facing a building structure; - an upper frame having a width in a thickness direction from the front steel plate toward the rear steel plate and disposed between upper ends of the front steel plate and the rear steel plate so as to be coupled; - a first side frame having a width in the thickness direction and disposed at an end of a first side among both ends of each of the front steel plate and the rear steel plate in a horizontal direction so as to be coupled; - a second side frame having a width in the thickness direction and disposed at an end of a second side among the both ends of each of the front steel plate and the rear steel plate in the horizontal direction so as to be coupled; and - a lower frame having a width in the thickness direction and disposed between lower ends of each of the front steel plate and the rear steel plate so as to be coupled; characterized in that - an insulation member is located between an inner surface of an upper end of the rear steel plate and an outer surface of the upper frame or between an inner surface of a lower end of the rear steel plate and an outer surface of the lower frame , wherein the insulation member comprises: - an adhesive portion adhered to an outer surface of the upper frame or the lower frame ; and - an insulation portion having one side adhered to the adhesive portion and the other side allowing the rear steel plate to be in close contact therewith. - a front steel plate ; - a rear steel plate spaced apart from the front steel plate in a rear direction of the front steel plate and facing a building structure; - an upper frame having a width in a thickness direction from the front steel plate toward the rear steel plate and disposed between upper ends of the front steel plate and the rear steel plate so as to be coupled; - a first side frame having a width in the thickness direction and disposed at an end of a first side among both ends of each of the front steel plate and the rear steel plate in a horizontal direction so as to be coupled; - a second side frame having a width in the thickness direction and disposed at an end of a second side among the both ends of each of the front steel plate and the rear steel plate in the horizontal direction so as to be coupled; and - a lower frame having a width in the thickness direction and disposed between lower ends of each of the front steel plate and the rear steel plate so as to be coupled; characterized in that - an insulation member is located between an inner surface of an upper end of the rear steel plate and an outer surface of the upper frame or between an inner surface of a lower end of the rear steel plate and an outer surface of the lower frame , wherein the insulation member comprises: - an adhesive portion adhered to an outer surface of the upper frame or the lower frame ; and - an insulation portion having one side adhered to the adhesive portion and the other side allowing the rear steel plate to be in close contact therewith.
A display substrate, comprising: a base substrate ; a sealant on the base substrate ; and a contact layer between the base substrate and the sealant , the contact layer being in contact with the sealant , a contact layer surface of the contact layer away from the base substrate is non-flat at a contact position where the contact layer is in contact with the sealant ; wherein the contact layer surface comprises at least one contact layer groove at the contact position where the contact layer is in contact with the sealant , and the sealant extends into the at least one contact layer groove; wherein the at least one contact layer groove comprises a first groove and a second groove , and the first groove and the second groove are different in depth; wherein the first groove is plural; characterised in that the second groove is plural, and the plurality of first grooves and the plurality of second grooves are staggered; a the second groove is arranged between at least two adjacent first grooves , and/or a first groove is arranged between at least two adjacent second grooves ; the contact layer is continuous in the plurality of first grooves and the plurality of second grooves . a base substrate ; a sealant on the base substrate ; and a contact layer between the base substrate and the sealant , the contact layer being in contact with the sealant , a contact layer surface of the contact layer away from the base substrate is non-flat at a contact position where the contact layer is in contact with the sealant ; wherein the contact layer surface comprises at least one contact layer groove at the contact position where the contact layer is in contact with the sealant , and the sealant extends into the at least one contact layer groove; wherein the at least one contact layer groove comprises a first groove and a second groove , and the first groove and the second groove are different in depth; wherein the first groove is plural; characterised in that the second groove is plural, and the plurality of first grooves and the plurality of second grooves are staggered; a the second groove is arranged between at least two adjacent first grooves , and/or a first groove is arranged between at least two adjacent second grooves ; the contact layer is continuous in the plurality of first grooves and the plurality of second grooves .
Water fitting system comprising a water tank , an electrical control unit , an operator control unit , a fresh water valve , preferably an electrical valve , one or more water inlet openings (5a-d) of the water tank , a water outlet valve , preferably an eccentric , of the water tank , wherein the operator control unit is coupled for signalling purposes to the electrical control unit , wherein the electrical control unit is coupled for control purposes firstly to the fresh water valve and secondly to the water outlet valve , and wherein the fresh water valve is connected to at least one of the water inlet openings (5a-d), preferably to each of the water inlet openings (5a-d), via at least one supply pipe (7a-c), characterized in that the electrical control unit has a data memory for calibration information which relates a throughflow behaviour of the fresh water valve to an outflow behaviour of the water outlet valve , and in that the electrical control unit is designed to actuate the fresh water valve and/or the water outlet valve based on the calibration information such that a filling level of the water tank is set to a predetermined profile, preferably that a current throughflow rate of the fresh water valve substantially corresponds to a current discharge rate of the water outlet valve in order to keep a filling level of the water tank substantially constant.
An adjustable device for connecting two walls to form a block, comprising two elements each provided with means for assembling them together, which assembling means comprise projections and through openings , wherein the two elements each comprise a locking device of the elastic engagement type provided at least one of the projections of the element considered, which elements are capable of being assembled and locked to each other facing each other removably by interlocking at least one of the projections provided with the locking device of one of the elements in one of the openings of the other element , and by concomitant elastic engagement of the locking device in said opening , to constitute a spacer extending along a longitudinal axis and which is adjustable in length.