mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a feed premix containing multiple trace elements, comprising the steps of: a. providing salts solution containing trace elements of copper, iron, manganese and zinc, b. providing solution of a yeast autolysate, c. mixing the said solution obtained from steps (a) and (b), and reacting the said solution containing trace elements with said yeast autolysate under pH 3.0-6.0 and the temperature of 40-100°C so as to convert said trace elements into the form of organic compounds; wherein, proportions of said trace elements of copper, iron, manganese and zinc are determined based on feeding standards for different animals in different physiological periods; said reaction contains two steps: reacting for 10-600 minutes under the temperature of 40-70°C; and reacting for 10-600 minutes under the temperature of 70-100°C; the concentration of the autolysis solution is 10 - 15%. a. providing salts solution containing trace elements of copper, iron, manganese and zinc, b. providing solution of a yeast autolysate, c. mixing the said solution obtained from steps (a) and (b), and
A cutting insert for cutting work material, the cutting insert comprising: two principal surfaces opposite to each other; and a side surface connecting each of the principal surfaces to each other, wherein a boundary portion between each of the principal surfaces and the side surface forms a cutting edge that is formed of CBN as a whole, and wherein the side surface is provided with a groove (10, 11) so that the groove (10, 11) is recessed with respect to the side surface, wherein the groove (10, 11) is formed in a central portion of the side surface, characterised in that, in a case where a thickness of the insert is indicated as "a", and a width of the grove (10, 11) is indicated as "b", the following expression is satisfied: (a-b)/2≥1 mm. two principal surfaces opposite to each other; and a side surface connecting each of the principal surfaces to each other, wherein a boundary portion between each of the principal surfaces and the side surface forms a cutting edge that is formed of CBN as a whole, and wherein the side surface is provided with a groove (10, 11) so that the groove (10, 11) is recessed with respect to the side surface, wherein the groove (10, 11) is formed in a central portion of the side surface, characterised in that, in a case where a thickness of the insert is indicated as "a", and a width of the grove (10, 11) is indicated as "b", the following expression is satisfied: (a-b)/2≥1 mm.
A method of preparing a fiber for use in forming a ceramic matrix composite material comprising the steps of: removing an organic sizing from a fiber during a heat treatment cycle to provide pyrolyzed remnants on the fiber, wherein the pyrolyzed remnants include residual carbon; providing a material during the heat treatment cycle, said material comprising a solid species that includes at least boron to provide an interface coating (32a;32b); and using the pyrolyzed remnants to react with the material to provide the interface coating (32a;32b) on the fiber. removing an organic sizing from a fiber during a heat treatment cycle to provide pyrolyzed remnants on the fiber, wherein the pyrolyzed remnants include residual carbon; providing a material during the heat treatment cycle, said material comprising a solid species that includes at least boron to provide an interface coating (32a;32b); and using the pyrolyzed remnants to react with the material to provide the interface coating (32a;32b) on the fiber.
A device for converting a semi-automatic self-loading handgun into a full automatic weapon, wherein the handgun comprises a slide and an own trigger, and the device comprises an operating trigger and a means arranged between the operating trigger and the own trigger causing repeated and series activations of the own trigger to release respective shots when the operating trigger is in pulled state, characterized by comprising a case that has a front part in which the handgun can be releasably fixed, and the case has a rear part and the operating trigger is arranged in the rear part of the case, wherein said activations of the own trigger caused by said means are independent from the forward movement of the slide after the respective shots.
A method for providing ancillary services to an independent system operator, ISO, or an integrated electrical utility by directing the operation of a plurality of resources, each resource having a primary process other than providing ancillary services, the method comprising: receiving an ancillary services request from an ISO or utility, the ancillary service request comprising an operational setpoint and to operate the resources at the specified setpoint; selecting a combination of the resources and operational setpoints of the resources that satisfy the ancillary services request as well as the primary process of each selected resource; and directing the selected resources to operate at the selected setpoints, characterised in that each resource is connected to a local device controller for carrying out the primary process and a service controller for carrying out ancillary services, wherein the services controller receives control signals comprising the operational setpoint and operates the respective resource at said operational setpoint to provide the ancillary services, when said operational setpoint for said resource is within operational constraints defined by its local device controller, and wherein the local device controller overrides the services controller from controlling said resource when an operator of the respective primary process requires the resource to be used for its primary process. receiving an ancillary services request from an ISO or utility, the ancillary service request comprising an operational setpoint and to operate the resources at the specified setpoint; selecting a combination of the resources and operational setpoints of the resources that satisfy the ancillary services request as well as the primary process of each selected resource; and directing the selected resources to operate at the selected setpoints, characterised in that each resource is connected to a local device controller for carrying out the primary process and a service controller for carrying out ancillary services, wherein the services controller receives control signals comprising the operational setpoint and operates the respective resource at said operational setpoint to provide the ancillary services, when said operational setpoint for said resource is within operational constraints defined by its local device controller, and wherein the local device controller overrides the services controller from controlling said resource when an operator of the respective primary process requires the resource to be used for its primary process.
Subframe (1, 1', 1"), in particular a rear axle subframe, for a motor vehicle, comprising at least two side members, at least two crossmembers (3, 4) which interconnect the side members and are spaced apart from one another in the longitudinal direction of the vehicle, vehicle body connection elements which are arranged on support portions (3.1) of the subframe (1, 1', 1") that protrude laterally outwards from a connection portion at which one of the side members is connected to one of the crossmembers, and comprising a front and a rear link bracket (10, 11) at each side of the vehicle which are spaced apart from one another in the longitudinal direction of the vehicle, characterised in that at each side of the vehicle at least one reinforcement brace is provided, which reinforcement brace is attached to a portion (2.3) of one of the side members which is between the link brackets (10, 11), and is attached by means of an end portion (20.3) to one of the vehicle body connection elements or to one of the support portions (3.1) which protrude laterally outwards.
A refill for a volatile material dispenser, comprising: a container having a neck portion; a wick in contact with a volatile material in the container and extending out the neck portion; and an annular, spiraled thread (42, 62) disposed on an outer surface of the neck portion of the container for attachment of a cap thereto; characterized in that the thread (42, 62) is also adapted to interact with latches (84a, 84b) disposed in a volatile material dispenser to retain the refill therein, wherein the container is devoid of an additional retaining structure on the neck portion thereof; further characterized in that the thread (42, 62) includes at least one void (60, 64) therein. a container having a neck portion; a wick in contact with a volatile material in the container and extending out the neck portion; and an annular, spiraled thread (42, 62) disposed on an outer surface of the neck portion of the container for attachment of a cap thereto; characterized in that the thread (42, 62) is also adapted to interact with latches (84a, 84b) disposed in a volatile material dispenser to retain the refill therein, wherein the container is devoid of an additional retaining structure on the neck portion thereof; further characterized in that the thread (42, 62) includes at least one void (60, 64) therein.
An apparatus for laterally acting upon at least one dough sheet placed on a conveying device, comprising at least one pushing member for acting upon at least one edge of the dough sheet, the at least one pushing member being guided movably relative to the at least one edge by at least one drive means, characterized in that the at least one pushing member can be driven for displacing movement when the edge of the dough sheet is acted upon superimposed on the movement guided against the edge in the conveying direction of the dough sheet.
Mobile radio device for communication in a mobile radio network, wherein the mobile radio device is configured in order to operate in a mobile radio network and to communicate by way of mobile radio signals which are allocated to the mobile radio device, characterized in that the mobile radio device is further configured such as to amplify, as a function of a test result, mobile radio signals (DL, UL) between a base station and at least one further mobile radio device (B, C), in order to improve a reception quality and/or transmission quality of the mobile radio signals, wherein the test result is derived by a communication between the mobile radio device, the at least one further mobile radio device (B, C), the base station, and/or a mobile radio provider.
A sensing unit for a tissue stimulator, comprising an A/D converter, which samples an analogue signal by means of a sampling clock and converts it into a digital signal, a digital filter, of which the input is connected to the output of the A/D converter and which, by means of a filter clock, filters the digital signal, characterised in that the filter clock is a multiple of the sampling clock for a specific period of time T.
A pneumatic tire, comprising a tread formed from a rubber composition for tires, the rubber composition comprising: a rubber component; a farnesene polymer; and a carbon black having a cetyltrimethylammonium bromide adsorption specific surface area of 140 m 2 /g or more and a ratio (CTAB/IA) of the cetyltrimethylammonium bromide adsorption specific surface area (CTAB) to an iodine adsorption number of 1.10 or higher, wherein the amount of the farnesene polymer per 100 parts by mass of the rubber component is 5 parts by mass or more, and wherein the amount of the carbon black per 100 parts by mass of the rubber component is 5 parts by mass or more. a rubber component; a farnesene polymer; and a carbon black having a cetyltrimethylammonium bromide adsorption specific surface area of 140 m 2 /g or more and a ratio (CTAB/IA) of the cetyltrimethylammonium bromide adsorption specific surface area (CTAB) to an iodine adsorption number of 1.10 or higher, wherein the amount of the farnesene polymer per 100 parts by mass of the rubber component is 5 parts by mass or more, and wherein the amount of the carbon black per 100 parts by mass of the rubber component is 5 parts by mass or more.
A method of operating a wind power plant, to mitigate effects of low frequency power oscillations on an electrical grid, comprising a plurality of wind turbines, the wind power plant producing a plant power output, the method comprising: receiving a modulation request signal indicating a requested modulation of the plant power output, the requested modulation specifying a modulation frequency, the modulation request signal is counter-phase to the power oscillations on the electrical grid; and generating a respective power reference signal for each of at least two wind turbines of the plurality of wind turbines selected to fulfill the requested modulation, characterized in that each generated power reference signal includes a respective modulation component corresponding to a portion of the requested modulation and having a frequency different than the modulation frequency, wherein the waveform of the requested modulation is an arithmetically summation of the modulation component of the power output of each wind turbine, and wherein generating the power reference signal and whether to include the respective modulation component is performed in response to determining that the modulation frequency corresponds to a predetermined susceptible frequency at which at least one of the plurality of wind turbines has a greater susceptibility to mechanical oscillations. receiving a modulation request signal indicating a requested modulation of the plant power output, the requested modulation specifying a modulation frequency, the modulation request signal is counter-phase to the power oscillations on the electrical grid; and generating a respective power reference signal for each of at least two wind turbines of the plurality of wind turbines selected to fulfill the requested modulation, each generated power reference signal includes a respective modulation component corresponding to a portion of the requested modulation and having a frequency different than the modulation frequency, wherein the waveform of the requested modulation is an arithmetically summation of the modulation component of the power output of each wind turbine, and wherein generating the power reference signal and whether to include the respective modulation component is performed in response to determining that the modulation frequency corresponds to a predetermined susceptible frequency at which at least one of the plurality of wind turbines has a greater susceptibility to mechanical oscillations.
A resin production method for producing a resin having a predetermined pattern by curing a radiation curable composition while keeping a mold having a predetermined depressed and projected pattern on a surface thereof and the radiation curable composition in contact with each other, the method comprising: an arrangement step of arranging the radiation curable composition on a substrate; a contacting step of bringing the mold into contact with the radiation curable composition; a radiation irradiation step of irradiating the radiation curable composition with a radiation while keeping the radiation curable composition in contact with the mold; a tensile stress generation step of generating a tensile stress of 0.001 N/mm 2 or more and 1.000 N/mm 2 or less by applying a force to the mold and/or the substrate in a direction of spacing the substrate and the mold away from each other after the start of the radiation irradiation step and to such a degree that the mold and the radiation curable composition are not spaced away from each other when the radiation curable composition is irradiated with the radiation; and a mold release step of releasing the cured composition and the mold from each other. an arrangement step of arranging the radiation curable composition on a substrate; a contacting step of bringing the mold into contact with the radiation curable composition; a radiation irradiation step of irradiating the radiation curable composition with a radiation while keeping the radiation curable composition in contact with the mold; a tensile stress generation step of generating a tensile stress of 0.001 N/mm 2 or more and 1.000 N/mm 2 or less by applying a force to the mold and/or the substrate in a direction of spacing the substrate and the mold away from each other after the start of the radiation irradiation step and to such a degree that the mold and the radiation curable composition are not spaced away from each other when the radiation curable composition is irradiated with the radiation; and a mold release step of releasing the cured composition and the mold from each other.
A method for secure transmissions on a broadcast channel, the method comprising: obtaining a short term key for a message for transmission; obtaining a broadcast access key for the message, the broadcast access key corresponding to an access key identifier; encrypting the message with the short term key; forming a packet header comprising the access key identifier and a random value; and transmitting the encrypted message with the packet header on the broadcast channel, wherein the short term key is a function of the broadcast access key and the random value. obtaining a short term key for a message for transmission; obtaining a broadcast access key for the message, the broadcast access key corresponding to an access key identifier; encrypting the message with the short term key; forming a packet header comprising the access key identifier and a random value; and transmitting the encrypted message with the packet header on the broadcast channel, wherein the short term key is a function of the broadcast access key and the random value.
A transmission method with Time Division Duplex multi-carrier aggregation, comprising: Performing uplink and downlink configurations for each of the component carriers aggregated in a cell and ensuring coexistence of at least one identical uplink sub-frame and at least one identical downlink sub-frame between at least two of the component carriers and compliance of the configuration of at least one of the component carriers with an uplink and downlink configuration of Long Term Evolution Release 8, R8; and transmitting the uplink and downlink configuration of any one of the component carriers and those of the other component carriers aggregated with the any one of the component carrier to a Long Term Evolution Advanced User Equipment, LTE-A UE, accessing the corresponding component carrier, the method further comprising performing the same uplink and downlink configuration for each of the component carriers aggregated together; and wherein the LTE-A UE is scheduled over sub-frames that are all in the uplink in a plurality of aggregated component carriers when the LTE-A UE intends to transmit data simultaneously over a plurality of carriers and wherein the LTE-A UE is scheduled over sub-frames that are all in the dowalink in a plurality of aggregated component carriers when the LTE-A DE intends to receive data simultaneously over a plurality of carriers. Performing uplink and downlink configurations for each of the component carriers aggregated in a cell and ensuring coexistence of at least one identical uplink sub-frame and at least one identical downlink sub-frame between at least two of the component carriers and compliance of the configuration of at least one of the component carriers with an uplink and downlink configuration of Long Term Evolution Release 8, R8; and transmitting the uplink and downlink configuration of any one of the component carriers and those of the other component carriers aggregated with the any one of the component carrier to a Long Term Evolution Advanced User Equipment, LTE-A UE, accessing the corresponding component carrier, the method further comprising performing the same uplink and downlink configuration for each of the component carriers aggregated together; and wherein the LTE-A UE is scheduled over sub-frames that are all in the uplink in a plurality of aggregated component carriers when the LTE-A UE intends to transmit data simultaneously over a plurality of carriers and wherein the LTE-A UE is scheduled over sub-frames that are all in the dowalink in a plurality of aggregated component carriers when the LTE-A DE intends to receive data simultaneously over a plurality of carriers.
Method for fabrication of a composite component (1, 61) comprising the following steps: a) forming an element (3, 13, 23, 33) with an opening (4, 14, 24, 34) into which resilient means (5, 15, 25, 35, 65) extend; b) placing a tool between the resilient means (5, 15, 25, 35, 65) of the element (3, 13, 23, 33) so as to place the resilient means (5, 15, 25, 35, 65) under stress; c) overmoulding the element (3, 13, 23, 33) with an at least partially amorphous metal alloy so as to confine the resilient means (5, 15, 25, 35, 65) under stress; d) removing the tool to form the composite component (1, 61) provided with a passage (8, 68) of corresponding shape to the tool between the resilient means (5, 15, 25, 35, 65) under stress. a) forming an element (3, 13, 23, 33) with an opening (4, 14, 24, 34) into which resilient means (5, 15, 25, 35, 65) extend; b) placing a tool between the resilient means (5, 15, 25, 35, 65) of the element (3, 13, 23, 33) so as to place the resilient means (5, 15, 25, 35, 65) under stress; c) overmoulding the element (3, 13, 23, 33) with an at least partially amorphous metal alloy so as to confine the resilient means (5, 15, 25, 35, 65) under stress; d) removing the tool to form the composite component (1, 61) provided with a passage (8, 68) of corresponding shape to the tool between the resilient means (5, 15, 25, 35, 65) under stress.
A process of increasing the amount of recoverable 3-chloro-4,5,6-trifluoropicolinonitrile (Formula B) prepared from fluorinating 3,4,5,6-tetrachloropicolinonitrile (Formula A) with a source of fluoride ion characterized in that it comprises the steps of: i) isolating the over-fluorinated 3,4,5,6-tetrafluoropicolinonitrile by-product from fluorinating 3,4,5,6-tetrachloropicolinonitrile; ii) reacting the isolated 3,4,5,6-tetrafluoropicolinonitrile (a) with lithium chloride (LiCl), (b) with 3,4,5,6-tetrachloropicolinonitrile (Formula A) in the presence of a phase-transfer catalyst or (c) with a combination of LiCl and 3,4,5,6-tetrachloropicolinonitrile to produce a mixture consisting predominantly of 3,4,5,6-tetrachloropicolinonitrile, monofluoro-trichloropicolinonitrile and difluoro-dichloropicolinonitrile; and iii) recycling the mixture consisting predominantly of 3,4,5,6-tetrachloropicolino-nitrile, monofluoro-trichloropicolinonitrile and difluoro-dichloropicolinonitriles to the fluorination reaction preparing 3-chloro-4,5,6-trifluoropicolinonitrile (Formula B). i) isolating the over-fluorinated 3,4,5,6-tetrafluoropicolinonitrile by-product from fluorinating 3,4,5,6-tetrachloropicolinonitrile; ii) reacting the isolated 3,4,5,6-tetrafluoropicolinonitrile (a) with lithium chloride (LiCl), (b) with 3,4,5,6-tetrachloropicolinonitrile (Formula A) in the presence of a phase-transfer catalyst or (c) with a combination of LiCl and 3,4,5,6-tetrachloropicolinonitrile to produce a mixture consisting predominantly of 3,4,5,6-tetrachloropicolinonitrile, monofluoro-trichloropicolinonitrile and difluoro-dichloropicolinonitrile; and iii) recycling the mixture consisting predominantly of 3,4,5,6-tetrachloropicolino-nitrile, monofluoro-trichloropicolinonitrile and difluoro-dichloropicolinonitriles to the fluorination reaction preparing 3-chloro-4,5,6-trifluoropicolinonitrile (Formula B).