mhurhangee/patent-ind-claim-en huggingface dataset:
A data monitoring system for use in monitoring wellbore conditions and downhole forces within a wellbore, the data monitoring system comprising: an outer housing ; a plurality of sensors within the housing for monitoring at least one wellbore condition and at least one force experienced by the data monitoring system, wherein the at least one wellbore condition is from the group consisting of temperature and pressure, and the at least one force is from the group consisting of axial tension force, axial compression force, and torque; a flow-through path within the outer housing to permit fluid or objects to be passed axially through the outer housing ; a data processor ; and a data communications conduit for transmitting data from the sensors to the data processor , wherein the data processor is programmed to model tension, compression and torque data in real time based upon data provided by the sensors and characterized in that the data processor is configured to permit force or torque data within the data processor to be zeroed out following an encounter with an obstruction or following a change in flow rate within the flow-through path. an outer housing ; a plurality of sensors within the housing for monitoring at least one wellbore condition and at least one force experienced by the data monitoring system, wherein the at least one wellbore condition is from the group consisting of temperature and pressure, and the at least one force is from the group consisting of axial tension force, axial compression force, and torque; a flow-through path within the outer housing to permit fluid or objects to be passed axially through the outer housing ; a data processor ; and a data communications conduit for transmitting data from the sensors to the data processor , wherein the data processor is programmed to model tension, compression and torque data in real time based upon data provided by the sensors and characterized in that the data processor is configured to permit force or torque data within the data processor to be zeroed out following an encounter with an obstruction or following a change in flow rate within the flow-through path.
Method for manufacturing a three-dimensional mold insert with sub-microstructures and/or microstructures, comprising the following steps: - Fabricating a three-dimensional macrostructure of a model object from plastic by means of 3D printing technology, wherein the fabricated macrostructure of the model object has at least one free-form surface , wherein the at least one free-form surface is a curved surface that can be described by means of piecewise polynomial mathematical functions; - smoothing the at least one free-form surface of the fabricated macrostructure by means of grinding and/or polishing until a roughness of the post-processed free-form surface with a center roughness value Ra below 40 nm is achieved; - coating the at least one free-form surface of the fabricated macrostructure with a patternable coating of a light-sensitive material, the coating achieving an optically smooth surface of the at least one free-form surface ; - Structuring of the coating by means of a structuring process with formation of sub-microstructures and/or microstructures on the fabricated macrostructure of the model object ; - Electroforming the patterned model object forming a mold insert with a sub-microstructure and/or microstructure. - Fabricating a three-dimensional macrostructure of a model object from plastic by means of 3D printing technology, wherein the fabricated macrostructure of the model object has at least one free-form surface , wherein the at least one free-form surface is a curved surface that can be described by means of piecewise polynomial mathematical functions; - smoothing the at least one free-form surface of the fabricated macrostructure by means of grinding and/or polishing until a roughness of the post-processed free-form surface with a center roughness value Ra below 40 nm is achieved; - coating the at least one free-form surface of the fabricated macrostructure with a patternable coating of a light-sensitive material, the coating achieving an optically smooth surface of the at least one free-form surface ; - Structuring of the coating by means of a structuring process with formation of sub-microstructures and/or microstructures on the fabricated macrostructure of the model object ; - Electroforming the patterned model object forming a mold insert with a sub-microstructure and/or microstructure.
Entry or exit system with a post to which a blocking device is fitted, wherein a drive , a control system and an angle measuring system are provided, and wherein the entry or exit system further has a brake which acts on the blocking device , wherein the position of the blocking device is checked by means of the angle measuring system , wherein the control system determines the required braking effect and the drive provides this required braking effect, characterized in that the brake , in an inoperative position in which the blocking device blocks a passage and in an open position in which the blocking device clears a passage, is driven at a variable power (Px) for reducing the power consumption for the braking effect, wherein a sufficient braking effect is nevertheless achieved in either of these two positions.
An adsorption module comprised of at least one sorption unit and at least one evaporator/condenser unit having respective ports for feeding and discharging a fluid heat transfer medium, said units being located in separate housings or a common vacuum-tight housing, wherein the housing is formed to be plate-shaped, and a plurality of plate-shaped housings can be joined to a stacked arrangement which has a common steam duct, characterized in that the plate-shaped housing itself is made to be an active component of the adsorption module, so that at least parts of the housing are integral parts of the sorption unit, at least the sorption unit is comprised of a monolithic, cast or sintered three-dimensional metallic structure having a plurality of breakthroughs oriented in the flow passage direction of the heat transfer medium, wherein the structures of the breakthroughs are freely selectable by the casting or sintering technology, on the three-dimensional structure, a zeolite layer being in close contact with same is located, which is crystallized in situ, and hereby atoms are extracted from the metallic substrate in a targeted manner and incorporated in the zeolite layer, and the metallic structure is an integral part of the respective plate-shaped housing.
A handheld electrofocused blow spinning (EFBS) device, comprising: a spinneret comprising an outer sheath and an inner needle; a syringe, capable of holding spinning solution, fluidly connected to the spinneret inner needle; at least one gas regulator; a gas supply fluidly connected to the syringe and the spinneret outer sheath, such that the gas supply is capable of simultaneously pressurizing the syringe and propelling gas out of the spinneret outer sheath; and a power source and a high voltage power supply. a spinneret comprising an outer sheath and an inner needle; a syringe, capable of holding spinning solution, fluidly connected to the spinneret inner needle; at least one gas regulator; a gas supply fluidly connected to the syringe and the spinneret outer sheath, such that the gas supply is capable of simultaneously pressurizing the syringe and propelling gas out of the spinneret outer sheath; and a power source and a high voltage power supply.
A base pharmaceutical or veterinary composition suitable for the delivery of active agents comprising: a) from 0.25 to 1.5 wt% a hyaluronic acid or a pharmaceutically or veterinary acceptable salt thereof as active agent, and b) from 10 to 25 wt% of two thermoreversible adhesive agents, wherein one of the adhesive agents is a poloxamer and the other is methyl cellulose, wherein thermoreversible means that the adhesive agent is capable to form a composition that is liquid at room temperature and a gel at body temperature, in the absence of any further active agent, wherein the weight ratio between the poloxamer and the hyaluronic acid or its salt is from 60:1 to 10:1; and wherein all percentages are expressed with respect to the total weight of the composition, provided that the sum of the amounts of the components is equal to or less than 100%. a) from 0.25 to 1.5 wt% a hyaluronic acid or a pharmaceutically or veterinary acceptable salt thereof as active agent, and b) from 10 to 25 wt% of two thermoreversible adhesive agents, wherein one of the adhesive agents is a poloxamer and the other is methyl cellulose, wherein thermoreversible means that the adhesive agent is capable to form a composition that is liquid at room temperature and a gel at body temperature, in the absence of any further active agent, wherein the weight ratio between the poloxamer and the hyaluronic acid or its salt is from 60:1 to 10:1; and wherein all percentages are expressed with respect to the total weight of the composition, provided that the sum of the amounts of the components is equal to or less than 100%.
A method for establishing a Wi-Fi connection (fig.2), the method comprising: in response to detecting (S21) a workstation, determining a Bluetooth binding relationship with the workstation; in response to determining (s22) that the Bluetooth binding relationship has already been established with the workstation via Bluetooth, sending a session request to the workstation to request to start a session, wherein the session request comprises binding information (s24); in response to determining (s25) that the session has started successfully, requesting Wi-Fi connection parameter information from the workstation via Bluetooth; and in response to receiving the Wi-Fi connection parameter information, establishing (s27) the Wi-Fi connection with the work station using the Wi-Fi connection parameter information, wherein the Wi-Fi connection parameter information is encrypted based on the binding information (s26). in response to detecting (S21) a workstation, determining a Bluetooth binding relationship with the workstation; in response to determining (s22) that the Bluetooth binding relationship has already been established with the workstation via Bluetooth, sending a session request to the workstation to request to start a session, wherein the session request comprises binding information (s24); in response to determining (s25) that the session has started successfully, requesting Wi-Fi connection parameter information from the workstation via Bluetooth; and in response to receiving the Wi-Fi connection parameter information, establishing (s27) the Wi-Fi connection with the work station using the Wi-Fi connection parameter information, wherein the Wi-Fi connection parameter information is encrypted based on the binding information (s26).
An ink set, comprising: a first inkjet ink cartridge containing a pre-treatment fixing fluid including a metal salt; at least one second inkjet ink cartridge containing an ink including an ink colorant and an ink vehicle; and a third inkjet ink cartridge containing a post-treatment fluid including a wax and a binder, the binder present in the post-treatment fluid in a range of about 10 weight percent to about 30 weight percent. a first inkjet ink cartridge containing a pre-treatment fixing fluid including a metal salt; at least one second inkjet ink cartridge containing an ink including an ink colorant and an ink vehicle; and a third inkjet ink cartridge containing a post-treatment fluid including a wax and a binder, the binder present in the post-treatment fluid in a range of about 10 weight percent to about 30 weight percent.
A method of expanding a packer assembly , comprising: providing a tubing with an axially continuous sealing element disposed on an outside surface thereof along a substantial length of the tubing, wherein the sealing element defines alternating thick and thin bands, and wherein each thin band protrudes from the outside surface less than each thick band ; and expanding the tubing such that relatively greater expansion of an outer diameter and an inner diameter of the tubing occurs at where each thin band is located compared to where each thick band is located, wherein the expansion of the tubing causes the thick and thin bands of the sealing element to contact a surrounding surface. providing a tubing with an axially continuous sealing element disposed on an outside surface thereof along a substantial length of the tubing, wherein the sealing element defines alternating thick and thin bands, and wherein each thin band protrudes from the outside surface less than each thick band ; and expanding the tubing such that relatively greater expansion of an outer diameter and an inner diameter of the tubing occurs at where each thin band is located compared to where each thick band is located, wherein the expansion of the tubing causes the thick and thin bands of the sealing element to contact a surrounding surface.
A propylene-based resin composition comprising 40 to 60 parts by mass of a propylene-based polymer (P1) having a melt flow rate (230°C, under a load of 2.16 kg) of more than 100 g/10 min and 130 g/10 min or less and having an amount of a n-decane-soluble part at 23°C of 5 to 25% by mass, wherein the ethylene content of the n-decane-soluble part is more than 40% by mass and 60% by mass or less, 5 to 20 parts by mass of a propylene homopolymer (P2), more than 15 parts by mass and 40 parts by mass or less of an ethylene/α-olefin copolymer (E1), 4 to 20 parts by mass of an ethylene/α-olefin/diene copolymer (E2), and 0 part by mass or more and less than 36 parts by mass of an inorganic filler (F) [providing that the total amount of the components (P1), (P2), (E1), (E2) and (F) is taken as 100 parts by mass]. 40 to 60 parts by mass of a propylene-based polymer (P1) having a melt flow rate (230°C, under a load of 2.16 kg) of more than 100 g/10 min and 130 g/10 min or less and having an amount of a n-decane-soluble part at 23°C of 5 to 25% by mass, wherein the ethylene content of the n-decane-soluble part is more than 40% by mass and 60% by mass or less, 5 to 20 parts by mass of a propylene homopolymer (P2), more than 15 parts by mass and 40 parts by mass or less of an ethylene/α-olefin copolymer (E1), 4 to 20 parts by mass of an ethylene/α-olefin/diene copolymer (E2), and 0 part by mass or more and less than 36 parts by mass of an inorganic filler (F)
A composite paper comprising an oil-resistant layer formed on at least one surface of a base paper, wherein the oil-resistant layer comprises a vinyl alcohol polymer (A) having a content of ethylene units of 2 to 10 mol%, a viscosity-average degree of polymerization of 300 to 2000, a saponification degree of 95 to 99.5 mol%, a total content of carboxyl groups and lactone rings of 0.02 to 3.0 mol%, a melting point of 180 to 230 °C, a content of 1,2-glycol bonds of 1.2 to 2 mol%, and a molar fraction of central hydroxyl groups in chains of three consecutive hydroxyls by a triad expression relative to vinyl alcohol units of 65 to 98 mol%, the oil-resistant layer further comprises 1 to 50 parts by mass of a fluorine compound (B) based on 100 parts by mass of the vinyl alcohol polymer (A), the base paper has an air permeability resistance of 1000 seconds or less and a bulk density of 0.5 to 1.0 g/cm 3 , the oil-resistant layer is formed in an amount of 0.1 to 3.0 g/m 2 in terms of dry mass, and a water vapor transmission rate of the composite paper is 1000 g/m 2 ·24 h or more. the base paper has an air permeability resistance of 1000 seconds or less and a bulk density of 0.5 to 1.0 g/cm 3 , the oil-resistant layer is formed in an amount of 0.1 to 3.0 g/m 2 in terms of dry mass, and a water vapor transmission rate of the composite paper is 1000 g/m 2 ·24 h or more.
A method of configuring a touch-controlled luminaire using an electronic mobile device , comprising: wirelessly receiving , at the electronic mobile device from the touch-controlled luminaire, a touch event profile indicative of a manner in which a surface of the touch-controlled luminaire was touched; associating , at the electronic mobile device, a lighting control action with the touch event profile; and wirelessly transmitting , by the electronic mobile device to at least one lighting controller for controlling the touch controlled luminaire , an association, based on said associating , between the lighting control action and the touch event profile. wirelessly receiving , at the electronic mobile device from the touch-controlled luminaire, a touch event profile indicative of a manner in which a surface of the touch-controlled luminaire was touched; associating , at the electronic mobile device, a lighting control action with the touch event profile; and wirelessly transmitting , by the electronic mobile device to at least one lighting controller for controlling the touch controlled luminaire , an association, based on said associating , between the lighting control action and the touch event profile.
Computer implemented method for determining a state of an arrangement of electric and/or electronic components, the method comprising the following steps carried out by computer hardware components: - determining a plurality of load current measurements of the arrangement, wherein the plurality of load current measurements comprises a plurality of series of load current measurements, each series comprising a pre-determined number of subsequent load current measurements; - providing the plurality of load current measurements to a machine learning method, wherein the machine learning method comprises a method using an artificial neural network; and - determining the state of the arrangement based on the plurality of load current measurements using the machine learning method; wherein determining the state of the arrangement comprises classifying the state of the arrangement into one of a plurality of classes; and wherein the classes comprise: a class of overload state and a class of non-overload state; or a class of fully charged and a class of not fully charged; or. a plurality of classes corresponding to pre-determined percentages of full charging. the method comprising the following steps carried out by computer hardware components: - determining a plurality of load current measurements of the arrangement, wherein the plurality of load current measurements comprises a plurality of series of load current measurements, each series comprising a pre-determined number of subsequent load current measurements; - providing the plurality of load current measurements to a machine learning method, wherein the machine learning method comprises a method using an artificial neural network; and - determining the state of the arrangement based on the plurality of load current measurements using the machine learning method; - determining a plurality of load current measurements of the arrangement, wherein the plurality of load current measurements comprises a plurality of series of load current measurements, each series comprising a pre-determined number of subsequent load current measurements; - providing the plurality of load current measurements to a machine learning method, wherein the machine learning method comprises a method using an artificial neural network; and - determining the state of the arrangement based on the plurality of load current measurements using the machine learning method; wherein determining the state of the arrangement comprises classifying the state of the arrangement into one of a plurality of classes; and wherein the classes comprise: a class of overload state and a class of non-overload state; or a class of fully charged and a class of not fully charged; or. a plurality of classes corresponding to pre-determined percentages of full charging. a class of overload state and a class of non-overload state; or a class of fully charged and a class of not fully charged; or. a plurality of classes corresponding to pre-determined percentages of full charging.
A tray device to retain an M.2 module used in an autonomous driving vehicle, the tray device comprising: a baseboard configured in a relatively rectangular shape having a first and second longitudinal edges and a first and second lateral edges ; a first guardrail disposed on a top surface of the baseboard along the first longitudinal edge ; a second guardrail disposed on the top surface of the baseboard along the second longitudinal edge , wherein the first and second guardrails are to keep an M.2 module in between and supported by the top surface of the baseboard , while allowing the M.2 module to extend beyond the first and second lateral edges ; and a riser member disposed on a bottom surface of the baseboard , wherein when the M.2 module is mounted together with the tray device on a motherboard of a data processing system within an autonomous driving vehicle, the riser member is configured to raise the tray device above the motherboard to prevent the baseboard from applying a heavy pressure on an electronic component mounted on the motherboard and underneath the tray device . a baseboard configured in a relatively rectangular shape having a first and second longitudinal edges and a first and second lateral edges ; a first guardrail disposed on a top surface of the baseboard along the first longitudinal edge ; a second guardrail disposed on the top surface of the baseboard along the second longitudinal edge , wherein the first and second guardrails are to keep an M.2 module in between and supported by the top surface of the baseboard , while allowing the M.2 module to extend beyond the first and second lateral edges ; and a riser member disposed on a bottom surface of the baseboard , wherein when the M.2 module is mounted together with the tray device on a motherboard of a data processing system within an autonomous driving vehicle, the riser member is configured to raise the tray device above the motherboard to prevent the baseboard from applying a heavy pressure on an electronic component mounted on the motherboard and underneath the tray device .
Fire extinguishing fitting in the form of a jet pipe , having a water inlet end and a water outlet end , which are connected to each other via a water passage for conducting extinguishing water; wherein 1.2 a control element in the form of a ballcock or valve is provided in the water passage between the water inlet end and the water outlet end , which controls a flow of extinguishing water flowing from the water inlet end to the water outlet end ; wherein 1.3 a solid wetting agent holder is provided, which has an insert that can be flushed with extinguishing water and has an inner receiving space in which a solid wetting agent is received; characterized in that 1.4 the solid wetting agent holder is inserted into the water inlet end or the water outlet end , and the solid wetting agent holder , when the fire extinguishing fitting is assembled, can be removed from the water inlet end or the water outlet end and inserted into it. 1.2 a control element in the form of a ballcock or valve is provided in the water passage between the water inlet end and the water outlet end , which controls a flow of extinguishing water flowing from the water inlet end to the water outlet end ; wherein 1.3 a solid wetting agent holder is provided, which has an insert that can be flushed with extinguishing water and has an inner receiving space in which a solid wetting agent is received; characterized in that 1.4 the solid wetting agent holder is inserted into the water inlet end or the water outlet end , and the solid wetting agent holder , when the fire extinguishing fitting is assembled, can be removed from the water inlet end or the water outlet end and inserted into it.