mhurhangee/ep-ind-claims huggingface dataset:
A method of constructing at ambient temperature a radiation shielding member, comprising: mixing (i) a metal oxide having a radiation shielding capability that is MgO with (ii) a phosphate containing material that is KH 2 PO 4 and (iii) CaSiO 3; incorporating a radiation shielding material into the metal oxide and phosphate containing material mix, wherein the radiation shielding material is selected from the group consisting of barite, barium sulfate, cerium oxide, tungsten oxide, gadolinium oxide, powdered annealed leaded glass with 40% to 75% lead content, fibres of annealed leaded glass with 40% to 75% lead content, celestites and depleted uranium; and curing the incorporated radiation shielding material and metal oxide and phosphate containing material mix at ambient temperature, wherein said ambient temperature is less than 100°C. mixing (i) a metal oxide having a radiation shielding capability that is MgO with (ii) a phosphate containing material that is KH 2 PO 4 and (iii) CaSiO 3; incorporating a radiation shielding material into the metal oxide and phosphate containing material mix, wherein the radiation shielding material is selected from the group consisting of barite, barium sulfate, cerium oxide, tungsten oxide, gadolinium oxide, powdered annealed leaded glass with 40% to 75% lead content, fibres of annealed leaded glass with 40% to 75% lead content, celestites and depleted uranium; and curing the incorporated radiation shielding material and metal oxide and phosphate containing material mix at ambient temperature, wherein said ambient temperature is less than 100°C.
Method for producing a fibrous pulp web, in particular a tissue or sanitary paper web, in which a fibrous pulp suspension is dewatered in a Twin Wire Former in order to form a fibrous pulp web and the fibrous pulp web is dried with the aid of a hot-air dryer, where a pre-dewatering device is provided after the Twin Wire Former and before the hot-air dryer, where the fibrous pulp web is dried in the hot-air dryer on a structured TAD wire with the aid of a TAD drum to which hot air is fed, characterized in that the pre-dewatering device has a hood and a suction roll and in that a hot fluid flows through the fibrous pulp web embedded between exactly one machine clothing (3, 4, 5) on each side, where the machine clothing between suction roll and fibrous pulp web is a felt and the machine clothing (3, 4) between fibrous pulp web and hood is a wire (3, 4), and in that a specific volume flux of the fluid greater than 100 m 3 /(m 2.min), especially greater than 200 m 3 /(m 2.min), preferably greater than 250 m 3 /(m 2.min), is drawn through the fibrous pulp web by suction in the pre-dewatering device.
Method for manufacturing flexible pipes by welding cold-rolled narrow strips in the form of flat wire or wire-like sections of a TWIP steel, in particular for use in flexible pipes for offshore applications, characterized in that the ends of the sections of the narrow strip to be welded are chamfered relative to the main loading direction of the narrow strip and are arranged to match one another, and the weld seam is produced by a fusion welding process with a relatively small fusion zone and/or a relatively low welding temperature, the position of the weld seam relative to the main loading direction of the narrow strip being arranged at a bevel angle α of between 30° and 75°.
A method, comprising: forming a first pattern of grooves in a first layer of material positioned on a substrate, the first layer being formed of a non-wet strippable resist material, forming a second pattern overlaying the first pattern in the first layer; and, etching the first pattern and the second pattern into the substrate forming a nano-shaped imprint lithography template having a surface pattern, the surface pattern including a plurality of features having at least one sharp edge. forming a first pattern of grooves in a first layer of material positioned on a substrate, the first layer being formed of a non-wet strippable resist material, forming a second pattern overlaying the first pattern in the first layer; and, etching the first pattern and the second pattern into the substrate forming a nano-shaped imprint lithography template having a surface pattern, the surface pattern including a plurality of features having at least one sharp edge.
An information transmission method performed by a user equipment, the method comprising: • obtaining (step 101) first subframe configuration information used to instruct to receive first information on a first narrowband resource, the first narrowband resource is a frequency resource that has a frequency width of less than 20 MHz; • determining (step 102), according to the first subframe configuration information, a first subframe for receiving the first information on the first narrowband resource; and • in the first subframe, only receiving (step 103) information on the first narrowband resource, wherein the received information in the first subframe is the first information, ∘ wherein the first information comprises common control information and the first information does not comprise user-specific control information, and the common control information comprises control information for scheduling random access response information; and. ∘ wherein user-specific control information is transmitted by a base station in the first subframe on a second narrowband resource; and • in a subframe subsequent to the first subframe, only receiving common data information, wherein the common data information is the random access response information. • obtaining (step 101) first subframe configuration information used to instruct to receive first information on a first narrowband resource, the first narrowband resource is a frequency resource that has a frequency width of less than 20 MHz; • determining (step 102), according to the first subframe configuration information, a first subframe for receiving the first information on the first narrowband resource; and • in the first subframe, only receiving (step 103) information on the first narrowband resource, wherein the received information in the first subframe is the first information, ∘ wherein the first information comprises common control information and the first information does not comprise user-specific control information, and the common control information comprises control information for scheduling random access response information; and. ∘ wherein user-specific control information is transmitted by a base station in the first subframe on a second narrowband resource; and ∘ wherein the first information comprises common control information and the first information does not comprise user-specific control information, and the common control information comprises control information for scheduling random access response information; and. ∘ wherein user-specific control information is transmitted by a base station in the first subframe on a second narrowband resource; and • in a subframe subsequent to the first subframe, only receiving common data information, wherein the common data information is the random access response information.
A method for wireless communication, comprising: identifying a capability of a UE to support communications that are modulated at a first modulation order, the first modulation order associated with a first maximum transport block size, TBS; identifying one or more constraints of the UE for the communications modulated at the first modulation order, wherein the one or more constraints indicate a second modulation order associated with a second maximum TBS smaller than the first maximum TBS, the second modulation order being a lower modulation order than the first modulation order; determining a UE radio access capability parameter that indicates the first modulation order is supported by the UE and that indicates the one or more constraints of the UE for the communications modulated at the first modulation order; and transmitting the UE radio access capability parameter to a base station. identifying a capability of a UE to support communications that are modulated at a first modulation order, the first modulation order associated with a first maximum transport block size, TBS; identifying one or more constraints of the UE for the communications modulated at the first modulation order, wherein the one or more constraints indicate a second modulation order associated with a second maximum TBS smaller than the first maximum TBS, the second modulation order being a lower modulation order than the first modulation order; determining a UE radio access capability parameter that indicates the first modulation order is supported by the UE and that indicates the one or more constraints of the UE for the communications modulated at the first modulation order; and transmitting the UE radio access capability parameter to a base station.
An endoscope comprising: a distal end rigid portion that constitutes a distal end portion of an endoscope insertion portion and has an LED light source unit through hole; an LED light source unit disposed in the LED light source unit through hole, wherein the LED light source unit comprises: an LED ceramic substrate; an LED light source mounted on a distal end side of the LED ceramic substrate; an LED cable configured to be inserted in the endoscope insertion portion and to supply electric power to the LED light source; and a ceramic cutout portion being provided on a proximal end side of the LED ceramic substrate for exposing a conductive pattern of the LED ceramic substrate for electrically connecting the LED light source and the LED cable; characterized by further comprising a reinforcement member made of a metal material having rigidity, the reinforcement member being integrally fixed to the LED ceramic substrate by an insulating adhesive and configured to cover the ceramic cutout portion. a distal end rigid portion that constitutes a distal end portion of an endoscope insertion portion and has an LED light source unit through hole; an LED light source unit disposed in the LED light source unit through hole, wherein the LED light source unit comprises: an LED ceramic substrate; an LED light source mounted on a distal end side of the LED ceramic substrate; an LED cable configured to be inserted in the endoscope insertion portion and to supply electric power to the LED light source; and a ceramic cutout portion being provided on a proximal end side of the LED ceramic substrate for exposing a conductive pattern of the LED ceramic substrate for electrically connecting the LED light source and the LED cable; an LED ceramic substrate; an LED light source mounted on a distal end side of the LED ceramic substrate; an LED cable configured to be inserted in the endoscope insertion portion and to supply electric power to the LED light source; and a ceramic cutout portion being provided on a proximal end side of the LED ceramic substrate for exposing a conductive pattern of the LED ceramic substrate for electrically connecting the LED light source and the LED cable; characterized by further comprising a reinforcement member made of a metal material having rigidity, the reinforcement member being integrally fixed to the LED ceramic substrate by an insulating adhesive and configured to cover the ceramic cutout portion.
A method performed by a first node for determining a distance between the first node and a second node wherein said method comprises: - time stamping a data packet to be transmitted from the first node to the second node with a first time stamp, - transmitting said data packet to the second node, - receiving the transmitted data packet back from the second node, - estimating the distance between the first node and second node based on a round trip time between the first node and second node for the data packet, - determining a number of repetitions for the repeating step based on the estimated distance, - repeating the transmitting and receiving step according to the number of repetitions determined in the determining step, - time stamping the last received data packet from the second node with a second time stamp, and - calculating the distance between the first node and second node based on the first and second time stamp, the number of repetitions of the repeating step and internal delays in the first node and second node, characterized in that the number of repetitions of the repeating step decreases when the estimated distance increases, i.e. the shorter the estimated distance is the more repetitions are performed. - time stamping a data packet to be transmitted from the first node to the second node with a first time stamp, - transmitting said data packet to the second node, - receiving the transmitted data packet back from the second node, - estimating the distance between the first node and second node based on a round trip time between the first node and second node for the data packet, - determining a number of repetitions for the repeating step based on the estimated distance, - repeating the transmitting and receiving step according to the number of repetitions determined in the determining step, - time stamping the last received data packet from the second node with a second time stamp, and - calculating the distance between the first node and second node based on the first and second time stamp, the number of repetitions of the repeating step and internal delays in the first node and second node,
A system comprising a first object having a first depth d 1 and a power driven fastener for being inserted through said first depth d 1 of said first object and a second depth d 2 into a second object with a power tool, said fastener comprising: a head having an outer surface opposed to an inner surface, wherein the outer surface remains exposed upon the fastener being inserted into the first and second objects; a shank connected with the inner surface of the head at a first end and forming a tip at a second end opposed to the first end, wherein the shank has an actual length L a from the first end to the second end, and wherein the actual length L a is equal to the sum of the first depth d 1 and the second depth d 2; and an identification marking formed on the outer surface, wherein the identification marking indicates an embedment depth d e of the fastener which is approximately equal to, within ±10%, the actual length L a minus the first depth d 1. a head having an outer surface opposed to an inner surface, wherein the outer surface remains exposed upon the fastener being inserted into the first and second objects; a shank connected with the inner surface of the head at a first end and forming a tip at a second end opposed to the first end, wherein the shank has an actual length L a from the first end to the second end, and wherein the actual length L a is equal to the sum of the first depth d 1 and the second depth d 2; and an identification marking formed on the outer surface, wherein the identification marking indicates an embedment depth d e of the fastener which is approximately equal to, within ±10%, the actual length L a minus the first depth d 1.
A method comprising: setting a radio timer for a schedule start time based on a schedule start parameter from a radio control schedule, the radio control schedule including a schedule location parameter representing a location where the radio control schedule identified by a schedule name parameter is to be implemented; receiving notification that the radio timer is at the schedule start time; and sending a disable radio control command to disable a radio processor for a mobile computing device supporting cellular voice communication and wireless data communication to reduce power consumption of a battery; receiving location information for the mobile computing device; comparing the location information with a list of schedule location parameters; activating the radio control schedule when the location information matches the schedule location parameter; said radio control schedule further including a schedule event parameter defining a plurality of operating modes, the radio processor being placed in a selected one of said plurality of operating modes when disabled, wherein each one of said plurality of operating modes is associated with a corresponding power level to be implemented by the mobile computing device. setting a radio timer for a schedule start time based on a schedule start parameter from a radio control schedule, the radio control schedule including a schedule location parameter representing a location where the radio control schedule identified by a schedule name parameter is to be implemented; receiving notification that the radio timer is at the schedule start time; and sending a disable radio control command to disable a radio processor for a mobile computing device supporting cellular voice communication and wireless data communication to reduce power consumption of a battery; receiving location information for the mobile computing device; comparing the location information with a list of schedule location parameters; activating the radio control schedule when the location information matches the schedule location parameter; said radio control schedule further including a schedule event parameter defining a plurality of operating modes, the radio processor being placed in a selected one of said plurality of operating modes when disabled, wherein each one of said plurality of operating modes is associated with a corresponding power level to be implemented by the mobile computing device.
An apparatus, comprising: a plurality of sub-diffraction limit light sensors wherein each sensor has an associated activation threshold for switching an output state of the sensor from a first state to a second state and wherein the activation thresholds of at least some of the sensors are defined by different numbers of photons; and means (4, 5) for estimating light incident on the plurality of sensors by interpreting the output states of the plurality of sensors in dependence upon a distribution of different activation thresholds of the sensors, wherein the different activation thresholds are defined by different numbers of photons. a plurality of sub-diffraction limit light sensors wherein each sensor has an associated activation threshold for switching an output state of the sensor from a first state to a second state and wherein the activation thresholds of at least some of the sensors are defined by different numbers of photons; and means (4, 5) for estimating light incident on the plurality of sensors by interpreting the output states of the plurality of sensors in dependence upon a distribution of different activation thresholds of the sensors, wherein the different activation thresholds are defined by different numbers of photons.
An information update method for access points comprising: a hand-held terminal being connected to an access point by means of authentication with the access point; characterized by access points obtaining all the access point information managed by an administration server from the administration server connected to the access points via a local area network; and transmitting the access point information to the hand-held terminal to enable the hand-held terminal to update and store the pre-stored access point information.
A wind turbine blade, comprising: a first shell member comprising a first mating surface along a first edge of the wind turbine blade; a second shell member comprising a second mating surface along the first edge of the wind turbine blade, wherein the second mating surface is opposite to the first mating surface; a bonding material disposed between the first mating surface and the second mating surface and configured to bond the first mating surface to the second mating surface; and a constrainer positioned at a desired bond line and coupled to one of the first mating surface and the second mating surface, wherein the constrainer is configured to restrict the bonding material from migrating into an interior cavity of the wind turbine blade; characterized in that: the constrainer comprises: a base section coupled to the first shell member at one end of the first mating surface; and a curved section extending substantially perpendicularly from the base section and facing the bonding material disposed between the first mating surface and the second mating surface; wherein the constrainer further comprises a collector section coupled to an end of the curved section facing the interior cavity of the wind turbine blade. a first shell member comprising a first mating surface along a first edge of the wind turbine blade; a second shell member comprising a second mating surface along the first edge of the wind turbine blade, wherein the second mating surface is opposite to the first mating surface; a bonding material disposed between the first mating surface and the second mating surface and configured to bond the first mating surface to the second mating surface; and a constrainer positioned at a desired bond line and coupled to one of the first mating surface and the second mating surface, wherein the constrainer is configured to restrict the bonding material from migrating into an interior cavity of the wind turbine blade; characterized in that: the constrainer comprises: a base section coupled to the first shell member at one end of the first mating surface; and a curved section extending substantially perpendicularly from the base section and facing the bonding material disposed between the first mating surface and the second mating surface; wherein the constrainer further comprises a collector section coupled to an end of the curved section facing the interior cavity of the wind turbine blade. a base section coupled to the first shell member at one end of the first mating surface; and a curved section extending substantially perpendicularly from the base section and facing the bonding material disposed between the first mating surface and the second mating surface; wherein the constrainer further comprises a collector section coupled to an end of the curved section facing the interior cavity of the wind turbine blade.