mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a thin, flexible abrasion resistant glove (200, 530), comprising: disposing a coagulant on an 18 gauge knitted liner (100, 502); applying a foamed nitrile composition on the knitted liner (100, 502) to form a foamed uncured coating; embedding salt particles to the foamed uncured coating; removing the salt particles from the foamed uncured coating, wherein a plurality of cavities are formed on and within the foamed uncured coating; and curing the foamed uncured coating having the plurality of cavities on and within the foamed uncured coating to form a cured foamed coating wherein the glove exhibiting at least an EN 388:03 level 4 abrasion resistance and the thickness of the glove ranges from 0.9 to 1.1 mm. disposing a coagulant on an 18 gauge knitted liner (100, 502); applying a foamed nitrile composition on the knitted liner (100, 502) to form a foamed uncured coating; embedding salt particles to the foamed uncured coating; removing the salt particles from the foamed uncured coating, wherein a plurality of cavities are formed on and within the foamed uncured coating; and curing the foamed uncured coating having the plurality of cavities on and within the foamed uncured coating to form a cured foamed coating wherein the glove exhibiting at least an EN 388:03 level 4 abrasion resistance and the thickness of the glove ranges from 0.9 to 1.1 mm.
A method, comprising: at an electronic device having a display device: while the electronic device is associated with a first user account that shares a location of the electronic device with one or more user accounts other than the first user account: receiving an indication that a second user account is requesting to be automatically notified about future changes in location of the electronic device relative to a first geographic location that satisfy a set of criteria; and after receiving the indication that the second user account is requesting to be automatically notified about future changes in the location of the electronic device relative to the first geographic location that satisfy the set of criteria: in accordance with a determination that a set of notification criteria are satisfied, the set of notification criteria including a criterion that is satisfied when the indication that the second user account is requesting to be automatically notified has been received and the electronic device is at the first geographic location, displaying, via the display device, a notification indicating that the second user account is requesting to be automatically notified about future changes in the location of the electronic device relative to the first geographic location that satisfy the set of criteria. receiving an indication that a second user account is requesting to be automatically notified about future changes in location of the electronic device relative to a first geographic location that satisfy a set of criteria; and after receiving the indication that the second user account is requesting to be automatically notified about future changes in the location of the electronic device relative to the first geographic location that satisfy the set of criteria: in accordance with a determination that a set of notification criteria are satisfied, the set of notification criteria including a criterion that is satisfied when the indication that the second user account is requesting to be automatically notified has been received and the electronic device is at the first geographic location, displaying, via the display device, a notification indicating that the second user account is requesting to be automatically notified about future changes in the location of the electronic device relative to the first geographic location that satisfy the set of criteria.
A guided wave radar, GWR, level measurement system comprising: a GWR transmitter and a process connection, wherein the process connection attaches the GWR level measurement system to a tank; and a waveguide, said waveguide comprising: a streamlined section, wherein the streamlined section comprises a length, a cross-section, a first end, and a second end, wherein the first end and the second end are separated by the length, wherein the cross-section is streamlined such that the streamlined section is streamlined between the first end and the second end, characterised in that the streamlined section is streamlined to reduce drag from a fluid flowing normally to the length; and a rotating connector at the first end wherein the rotating connector connects the streamlined section to the GWR level measurement system, with the streamlined section inside the tank such that the fluid, when moving within the tank, causes the streamlined section to rotate and thereby reduce drag on the waveguide. a GWR transmitter and a process connection, wherein the process connection attaches the GWR level measurement system to a tank; and a waveguide, said waveguide comprising: a streamlined section, wherein the streamlined section comprises a length, a cross-section, a first end, and a second end, wherein the first end and the second end are separated by the length, wherein the cross-section is streamlined such that the streamlined section is streamlined between the first end and the second end, characterised in that the streamlined section is streamlined to reduce drag from a fluid flowing normally to the length; and a rotating connector at the first end wherein the rotating connector connects the streamlined section to the GWR level measurement system, with the streamlined section inside the tank such that the fluid, when moving within the tank, causes the streamlined section to rotate and thereby reduce drag on the waveguide. a streamlined section, wherein the streamlined section comprises a length, a cross-section, a first end, and a second end, wherein the first end and the second end are separated by the length, wherein the cross-section is streamlined such that the streamlined section is streamlined between the first end and the second end, characterised in that the streamlined section is streamlined to reduce drag from a fluid flowing normally to the length; and a rotating connector at the first end wherein the rotating connector connects the streamlined section to the GWR level measurement system, with the streamlined section inside the tank such that the fluid, when moving within the tank, causes the streamlined section to rotate and thereby reduce drag on the waveguide.
Aeronautical gas storage cryogenic tank device, for on-board mounting, of spherical or elongated shape, comprising an inner container defining a liquefied gas storage chamber, an outer envelope containing the inner container, an insulation chamber defined between the inner container and the outer envelope, a removable collector passing through the outer envelope and the inner container in a sealed manner, characterized in that the outer envelope is made of a plurality of demountable parts making it possible to access the inner container, the outer envelope is made of a material resistant to temperatures from less than -60°C to at least +80°C, the insulation chamber has a reduced pressure with a helium-tightness equal to or better than 10 -9 millibar*litre/second defined between the inner container and the outer envelope, the outer envelope comprises two connections of which at least one is a sliding connection, supporting the inner container and borne by the outer envelope, and in that the device comprises a flexible thermally insulating neck forming a sealed interface between the collector on the one hand and, on the other hand, the outer envelope and the inner container, the neck being formed around a portion of the collector, the neck passing through the insulation chamber in order to allow the collector to be demounted independently of the pressure in the insulation chamber.
Apparatus for controlling a motor, having a first control loop, which comprises a first controller, and a second control loop, which comprises a second controller, wherein the controllers (3, 5) are designed to each control a state variable of the motor, wherein the second controller is arranged closer to the motor in terms of signalling than the first controller, characterized in that the first controller is integrated in a first control device, which is responsible for controlling the driving dynamics of a vehicle and has a device for calculating a desired speed of the motor, and the second controller is integrated in a second control device, in which an inverter is integrated, wherein the second control device is connected downstream of the first control device, and wherein the first controller is a torque controller and the second controller is a speed controller.
A ready-to-use emulsified food formulation, being free of food additives consisting of thickeners, emulsifiers and stabilizers, comprising at least one vegetable in a finely divided form, vegetable oil, water, and at least one oleaginous seed in a finely divided form, wherein said oleaginous seed is present in a quantity comprised between 0.1% and 15% by weight of the total weight of said formulation, said emulsified food formulation being obtained by homogenization carried out at a pressure equal to or higher than 10000 kPa and being characterized by a modal diameter of the particles contained therein higher than or equal to 300 μm and by additionally containing a vegetable fiber in a finely divided form, having a fiber content higher than 70% w/w and a water binding capacity higher than 5 g water/g dry matter. wherein said oleaginous seed is present in a quantity comprised between 0.1% and 15% by weight of the total weight of said formulation, said emulsified food formulation being obtained by homogenization carried out at a pressure equal to or higher than 10000 kPa and being characterized by a modal diameter of the particles contained therein higher than or equal to 300 μm and by additionally containing a vegetable fiber in a finely divided form, having a fiber content higher than 70% w/w and a water binding capacity higher than 5 g water/g dry matter.
A method for executing a single-threaded smart card application in a multi-threaded runtime environment on a next generation smart card, the method comprising: executing a set of applications, including multi-threaded applications, on a virtual machine on the smart card, wherein at least one application in said set of applications is a legacy application designed to run in a single-threaded environment, and wherein the legacy application is accessible to other applications in the set of applications through a shareable interface object, wherein the legacy application includes one or more files in a CAP file format; generating, on the virtual machine, a specialized environment in which the legacy application can execute safely, wherein said specialized environment includes a proxy object which encapsulates the shareable interface object, and wherein said proxy object controls access by the other applications in said set of applications to the shareable interface object such that only one application is allowed to access code in the legacy application at a time, wherein the one or more files are converted from the CAP file format into a Class file format before executing the legacy application; detecting, by the virtual machine, that the legacy application is accessing an existing object in memory that is intended by the legacy application to be shared; and creating, by the virtual machine, a new copy of the object corresponding to the previously-shared object in memory to cause the object to no longer be shared. executing a set of applications, including multi-threaded applications, on a virtual machine on the smart card, wherein at least one application in said set of applications is a legacy application designed to run in a single-threaded environment, and wherein the legacy application is accessible to other applications in the set of applications through a shareable interface object, wherein the legacy application includes one or more files in a CAP file format; generating, on the virtual machine, a specialized environment in which the legacy application can execute safely, wherein said specialized environment includes a proxy object which encapsulates the shareable interface object, and wherein said proxy object controls access by the other applications in said set of applications to the shareable interface object such that only one application is allowed to access code in the legacy application at a time, wherein the one or more files are converted from the CAP file format into a Class file format before executing the legacy application; detecting, by the virtual machine, that the legacy application is accessing an existing object in memory that is intended by the legacy application to be shared; and creating, by the virtual machine, a new copy of the object corresponding to the previously-shared object in memory to cause the object to no longer be shared.
A flexible fuel hose comprising: a rubber inner tube; a rubber outer cover; and an intermediate barrier layer consisting essentially of ethylene-vinyl alcohol copolymer having an ethylene content less than 30 mole %, wherein said rubber tube and said rubber cover are based on non-fluorinated rubber compositions. a rubber inner tube; a rubber outer cover; and an intermediate barrier layer consisting essentially of ethylene-vinyl alcohol copolymer having an ethylene content less than 30 mole %, wherein said rubber tube and said rubber cover are based on non-fluorinated rubber compositions.
A non-cyanide displacement electroless gold plating solution, characterized by containing a non-cyanide water-soluble gold compound and a hydrogensulfite compound, in which the hydrogensulfite compound is a hydrogensulfite salt selected from an alkali metal hydrogensulfite salt, an alkaline earth metal hydrogensulfite salt, and an ammonium hydrogensulfite salt.
A spun yarn comprising: about 55 to 70 weight %, based on the total weight of the spun yarn, meta-aramid fiber; about 7 to 15 weight %, based on the total weight of the spun yarn, nylon fiber; about 5 to 15 weight %, based on the total weight of the spun yarn, para-aramid; about 2 to 5 weight %, based on the total weight of the spun yarn, anti-static fiber, and about 10 to 15 weight %, based on the total weight of the spun yarn, hydrophilic fiber; wherein said hydrophilic fiber is selected from the group consisting of cellulose, cellulose derivatives, wool, and combinations thereof; and wherein said fibers are intimately blended. about 55 to 70 weight %, based on the total weight of the spun yarn, meta-aramid fiber; about 7 to 15 weight %, based on the total weight of the spun yarn, nylon fiber; about 5 to 15 weight %, based on the total weight of the spun yarn, para-aramid; about 2 to 5 weight %, based on the total weight of the spun yarn, anti-static fiber, and about 10 to 15 weight %, based on the total weight of the spun yarn, hydrophilic fiber; wherein said hydrophilic fiber is selected from the group consisting of cellulose, cellulose derivatives, wool, and combinations thereof; and wherein said fibers are intimately blended.
An isochronous transmission method for streaming multi-channel digital audio data as isochronous data in a standard wireless local area network transmission system where bandwidth is reserved for both contention-based traffic and contention free traffic, characterized in that the multi-channel digital audio data is formed by multi-channel audio samples organized in audio frames and sent to receivers using multicasting mode contention free traffic within consecutive beacon intervals, wherein duration of the beacon interval is adjusted to at least a predetermined integer number of time units of 1024 microseconds such that a beacon interval enables - transmission of contention-based traffic including a maximum size data frame together with its acknowledgement frame, two SIFS periods and two slot times, - transmission of an RTS control frame, a CTS control frame, a maximum size data frame, an acknowledgement control frame and four SIFS periods, and - transmission of contention free traffic including a beacon frame, a SIFS periods, said audio data and a CF-end frame, wherein the audio samples (9, 10) are arranged into 12 audio frames per beacon interval, and wherein the number of multi-channel samples (9, 10) in the audio frames is varied according to a predetermined pattern in a cycle of 125 consecutive beacon intervals such that from the beginning of each cycle of the 125 consecutive beacon intervals the cycle is sub-divided into groups of six consecutive beacon intervals, wherein - the first audio frame of the first beacon interval in the 11 th group contains 50 multi-channel audio samples, - the first audio frames of the first, second, fourth, fifth and sixth beacon intervals in the remaining groups each contain 51 multi-channel audio samples, - the first audio frames of the third beacon intervals in each group each contain 50 multi-channel audio samples, and - the remaining audio frames contain 49 multi-channel audio samples. - transmission of contention-based traffic including a maximum size data frame together with its acknowledgement frame, two SIFS periods and two slot times, - transmission of an RTS control frame, a CTS control frame, a maximum size data frame, an acknowledgement control frame and four SIFS periods, and - transmission of contention free traffic including a beacon frame, a SIFS periods, said audio data and a CF-end frame, - the first audio frame of the first beacon interval in the 11 th group contains 50 multi-channel audio samples, - the first audio frames of the first, second, fourth, fifth and sixth beacon intervals in the remaining groups each contain 51 multi-channel audio samples, - the first audio frames of the third beacon intervals in each group each contain 50 multi-channel audio samples, and - the remaining audio frames contain 49 multi-channel audio samples.
A system comprising a plurality of power supply units for providing redundant power to a monitoring device, the system comprising: a first power supply unit, the first power supply unit including: a first power module including a first power source that provides power and a first switch unit for selectively coupling the first power source of the first power module to input lines (130, 132) for the monitoring device; and a first communication module; and a second power supply unit, the second power supply unit including: a second power module including a second power source that provides power and a second switch unit for selectively coupling the second power source of the second power module to the input lines (130, 132); and a second communication module coupled to the first communication module; wherein the first and second communication modules (110, 114) of the first and second power supply units (104, 106) are configured for bidirectional communication, with one another, of information about an operating condition of the first and second power supply units (104, 106); wherein only one of the first and second power supply units (104, 106) is coupled to the input lines at a given time. a first power supply unit, the first power supply unit including: a first power module including a first power source that provides power and a first switch unit for selectively coupling the first power source of the first power module to input lines (130, 132) for the monitoring device; and a first communication module; and a first power module including a first power source that provides power and a first switch unit for selectively coupling the first power source of the first power module to input lines (130, 132) for the monitoring device; and a first communication module; and a second power supply unit, the second power supply unit including: a second power module including a second power source that provides power and a second switch unit for selectively coupling the second power source of the second power module to the input lines (130, 132); and a second communication module coupled to the first communication module; a second power module including a second power source that provides power and a second switch unit for selectively coupling the second power source of the second power module to the input lines (130, 132); and a second communication module coupled to the first communication module; wherein the first and second communication modules (110, 114) of the first and second power supply units (104, 106) are configured for bidirectional communication, with one another, of information about an operating condition of the first and second power supply units (104, 106); wherein only one of the first and second power supply units (104, 106) is coupled to the input lines at a given time.
A method comprising placing a wellbore servicing composition comprising a plurality of elastomer-coated sensors in a wellbore, a subterranean formation, or both, further comprising the step of using the elastomer-coated sensors to detect one or more parameters, wherein the one or more parameters include a change in the elastomer.
An injection mold stack comprising a core assembly and a cavity assembly, wherein the core assembly comprises a central core surrounded by an external lock ring and at least a portion of the core assembly is adapted to delimit a molding cavity with the cavity assembly, wherein the cavity assembly comprises a cavity insert and a neck ring that is positioned between the cavity insert and the core assembly, wherein the said neck ring comprises a front locking cavity and a front male locking portion oriented towards the core assembly, wherein the front locking cavity comprises a front opening oriented towards the core assembly, and a lateral wall of conical shape whose apex is oriented towards the cavity insert, wherein the front male locking portion comprises an outer wall of conical shape, whose apex is oriented towards the core assembly, and that surrounds the front locking cavity, wherein the external lock ring of the core assembly comprises a rear male locking portion and a rear annular cavity oriented towards the neck ring, wherein the rear male locking portion comprises an outer wall of conical shape whose apex is oriented towards the neck ring, wherein the rear annular cavity surrounds the said rear male locking portion, and comprises an annular opening oriented towards the neck ring, and a lateral wall of conical shape whose base is oriented towards the neck ring, wherein the conical front locking cavity, the conical front male locking portion, the conical rear male locking portion and the conical annular rear cavity are adapted to align and lock the core assembly with the neck ring by translating longitudinally the core assembly towards the neck ring or vice versa, so that the conical rear male locking portion is fitted into the conical front locking cavity and the conical front male locking portion is fitted into the conical rear annular cavity, the injection mold stack further comprising at least first and second venting channels for escaping air from the mold cavity, wherein the first venting channel comprises a first venting portion that communicates with the mold cavity, and that is defined between the rear male locking portion of the external lock ring and the neck ring, and the second venting channel comprises a second venting portion (S'), that communicates with the mold cavity, and that is defined between the rear male locking portion of the external lock ring and the central core.