mhurhangee/ep-ind-claims huggingface dataset:
A reactor assembly for heating plastic material comprising: a reactor vessel comprising a central axis; a furnace arranged to heat the reactor vessel to a temperature in excess of 350oC; and an agitator mounted within the reactor vessel, the agitator comprising: one or more blade(s) distal from the central axis for mixing contents of the reactor vessel in use; and one or more wearing part(s) mounted to the blade(s) to extend from the blade(s) for engaging with and removing char from the reactor vessel, wherein the wearing part(s) are spaced at a first distance from an internal surface of the reactor vessel. a reactor vessel comprising a central axis; a furnace arranged to heat the reactor vessel to a temperature in excess of 350oC; and an agitator mounted within the reactor vessel, the agitator comprising: one or more blade(s) distal from the central axis for mixing contents of the reactor vessel in use; and one or more wearing part(s) mounted to the blade(s) to extend from the blade(s) for engaging with and removing char from the reactor vessel, wherein the wearing part(s) are spaced at a first distance from an internal surface of the reactor vessel. one or more blade(s) distal from the central axis for mixing contents of the reactor vessel in use; and one or more wearing part(s) mounted to the blade(s) to extend from the blade(s) for engaging with and removing char from the reactor vessel, wherein the wearing part(s) are spaced at a first distance from an internal surface of the reactor vessel.
A copolymer, comprising: 20 to 65 wt% of units derived from an alkyl styrene-based monomer; 10 to 40 wt% of units derived from a (meth)acrylate-based monomer; and 20 to 40 wt% of units derived from a vinyl cyan-based monomer, based on a total weight of the copolymer, wherein the residual monomer content is 780 ppm or less, said residual monomer content being measured by gel permeation chromatography using a supernatant obtained after dissolving the copolymer in a chloroform solution and depositing in methanol. 20 to 65 wt% of units derived from an alkyl styrene-based monomer; 10 to 40 wt% of units derived from a (meth)acrylate-based monomer; and 20 to 40 wt% of units derived from a vinyl cyan-based monomer, based on a total weight of the copolymer, wherein the residual monomer content is 780 ppm or less, said residual monomer content being measured by gel permeation chromatography using a supernatant obtained after dissolving the copolymer in a chloroform solution and depositing in methanol.
A method of operating an electronic device to launch an application, comprising: generating statistical information from tracking past usages of an application in close proximity to an occurrence of an event comprising an operating environment criterion, wherein the operating environment criterion comprises a particular time period within a day; determining an association between the operating environment criterion and the application with the greatest probability of being accessed by a user, near the occurrence of the event comprising the operating environment criterion; detecting the event comprising the operating environment criterion associated with the application; and when motion of the electronic device is detected within a predetermined period of time after the detection of the event comprising the operating environment criterion bringing the application to the foreground. generating statistical information from tracking past usages of an application in close proximity to an occurrence of an event comprising an operating environment criterion, wherein the operating environment criterion comprises a particular time period within a day; determining an association between the operating environment criterion and the application with the greatest probability of being accessed by a user, near the occurrence of the event comprising the operating environment criterion; detecting the event comprising the operating environment criterion associated with the application; and when motion of the electronic device is detected within a predetermined period of time after the detection of the event comprising the operating environment criterion bringing the application to the foreground.
Method for producing a multilayer component, comprising the following steps: A) providing a main body and a connection element, B) applying a metal paste on at least one outer side of the main body, wherein the metal paste comprises silver carbonate, C) positioning the connection element on the metal paste, D) sintering the metal paste and thereby electrically conductively connecting the connection element to the main body. A) providing a main body and a connection element, B) applying a metal paste on at least one outer side of the main body, wherein the metal paste comprises silver carbonate, C) positioning the connection element on the metal paste, D) sintering the metal paste and thereby electrically conductively connecting the connection element to the main body.
A sound field control device comprising: an input part through which an audio signal is input; a storage part that stores a first factor obtained by calculating a proportion of energy of direct sound in total energy of sound collected in an adjustment environment within a predetermined time; a sound field generation part that generates a sound field effect sound from the audio signal input through the input part and that outputs the sound field effect sound at a volume corresponding to the first factor; a calculation part that calculates a second factor which represents a ratio of an energy of a direct sound to an energy of sound which is collected in a reproduction environment and which contains the direct sound; and a correction part that corrects the volume of the sound field effect sound based on a ratio between the first factor and the second factor. an input part through which an audio signal is input; a storage part that stores a first factor obtained by calculating a proportion of energy of direct sound in total energy of sound collected in an adjustment environment within a predetermined time; a sound field generation part that generates a sound field effect sound from the audio signal input through the input part and that outputs the sound field effect sound at a volume corresponding to the first factor; a calculation part that calculates a second factor which represents a ratio of an energy of a direct sound to an energy of sound which is collected in a reproduction environment and which contains the direct sound; and a correction part that corrects the volume of the sound field effect sound based on a ratio between the first factor and the second factor.
A receiving apparatus comprising: a deinterleaving device configured to receive an LDPC-coded data signal (Sa) in sets of N data items, where N can vary from frame to frame, said LDPC representing Low Density Parity Check, and the deinterleaving device further configured to perform a deinterleaving process on the data signal (Sa) having undergone an interleaving process; and a control device configured such that when N is an integer smaller than "a", where "a" is equal to a maximum number of data items in each set: - said control device controls said deinterleaving device to write the data items of said data signal to a sequence of addresses within an array having a number of columns equal to "a", in a first period, - said control device further controls said deinterleaving device to not write data items of said data signal to said sequence of addresses, in a second period, and - said control device further controls said deinterleaving device to read previously written data items from said sequence of addresses, during both said first period and said second period. a deinterleaving device configured to receive an LDPC-coded data signal (Sa) in sets of N data items, where N can vary from frame to frame, said LDPC representing Low Density Parity Check, and the deinterleaving device further configured to perform a deinterleaving process on the data signal (Sa) having undergone an interleaving process; and a control device configured such that when N is an integer smaller than "a", where "a" is equal to a maximum number of data items in each set: - said control device controls said deinterleaving device to write the data items of said data signal to a sequence of addresses within an array having a number of columns equal to "a", in a first period, - said control device further controls said deinterleaving device to not write data items of said data signal to said sequence of addresses, in a second period, and - said control device further controls said deinterleaving device to read previously written data items from said sequence of addresses, during both said first period and said second period. - said control device controls said deinterleaving device to write the data items of said data signal to a sequence of addresses within an array having a number of columns equal to "a", in a first period, - said control device further controls said deinterleaving device to not write data items of said data signal to said sequence of addresses, in a second period, and - said control device further controls said deinterleaving device to read previously written data items from said sequence of addresses, during both said first period and said second period.
Reeling shaft transfer rail system, comprising two parallel, substantially horizontal or slightly downstream of main transfer direction inclined transfer rails for supporting each of supporting ends of a reeling shaft, characterized in that the reeling shaft transfer rail system comprises at least partially pressurized hose means arranged on each of the transfer rails for moving and stopping the movement of the reeling shaft to be transferred.
A baler comprising: a frame; a compression system coupled to the frame, the compression system at least partially defining a compression chamber; a feed pan at least partially defining a pre-compression chamber, wherein the pre-compression chamber is in operable communication with the compression chamber; a first driven output shaft rotatable about a first axis of rotation; a second driven output shaft rotatable about a second axis of rotation; a lifting fork movable with respect to the pre-compression chamber and at least partially positionable therein, wherein rotation of the first driven output shaft, the second driven output shaft, or any combination thereof causes the lifting fork to move with respect to the pre-compression chamber, characterized in that the first driven output shaft is in operable communication with the lifting fork via a first linkage assembly, and the second driven output shaft is in operable communication with the lifting fork via a second linkage assembly, wherein the first driven output shaft is operable independently of the second driven output shaft. a frame; a compression system coupled to the frame, the compression system at least partially defining a compression chamber; a feed pan at least partially defining a pre-compression chamber, wherein the pre-compression chamber is in operable communication with the compression chamber; a first driven output shaft rotatable about a first axis of rotation; a second driven output shaft rotatable about a second axis of rotation; a lifting fork movable with respect to the pre-compression chamber and at least partially positionable therein, wherein rotation of the first driven output shaft, the second driven output shaft, or any combination thereof causes the lifting fork to move with respect to the pre-compression chamber, characterized in that the first driven output shaft is in operable communication with the lifting fork via a first linkage assembly, and the second driven output shaft is in operable communication with the lifting fork via a second linkage assembly, wherein the first driven output shaft is operable independently of the second driven output shaft.
A method for producing a transgenic plant cell comprising the steps of: a) providing bacteria of a transgenic, non-pathogenic strain variant of Agrobacterium strain K599 (NCPPB 2659) being a soil borne, plant pathogenic bacterium characterized by a 16S-23S rRNA intergenic sequence comprising at least one sequence motive selected from the group consisting of sequence motifs described by SEQ ID NO: 5, 6, 7, 8, 9, 10, 11, 12, 13, and 14, wherein said strain variant is capable to infect plant cells but is lacking hairy root phenotype inducing properties and wherein said strain variant is further comprising a non-pathogenic plasmid variant of the Ri-plasmid pRi2659 and a transgenic T-DNA, and b) co-cultivating a plant cell with said bacteria, and c) isolating or selecting plant cells comprising stably integrated into their genome said transgenic T-DNA, wherein said non-pathogenic strain variant is capable to infect plant cells, to mediate T-DNA transfer into plant cells, and to mediate T-DNA insertion into the plant genome, but is lacking hairy root phenotype inducing properties and wherein the non-pathogenic plasmid variant is comprising at least one sequence having a sequence identity of at least 90% to a sequence as described by SEQ ID NO: 24. a) providing bacteria of a transgenic, non-pathogenic strain variant of Agrobacterium strain K599 (NCPPB 2659) being a soil borne, plant pathogenic bacterium characterized by a 16S-23S rRNA intergenic sequence comprising at least one sequence motive selected from the group consisting of sequence motifs described by SEQ ID NO: 5, 6, 7, 8, 9, 10, 11, 12, 13, and 14, wherein said strain variant is capable to infect plant cells but is lacking hairy root phenotype inducing properties and wherein said strain variant is further comprising a non-pathogenic plasmid variant of the Ri-plasmid pRi2659 and a transgenic T-DNA, and b) co-cultivating a plant cell with said bacteria, and c) isolating or selecting plant cells comprising stably integrated into their genome said transgenic T-DNA,
A method for determining a number of compressors (302, 303) to start in a multiple compressor chiller system, the method comprising the step of: providing a multiple compressor chiller system having a predetermined number of compressors (302, 303) and a variable speed drive, the variable speed drive having a predetermined number of inverters, wherein each inverter is configured to power a corresponding motor of a compressor (302, 303); characterized in that the method further comprises the steps of: designating a number of inverters to be enabled on startup of the multiple compressor chiller system, wherein the designated number of inverters to be enabled on startup being initially equal to the predetermined number of inverters, and wherein enabling of an inverter at startup of the multiple compressor chiller system starts a corresponding compressor (302, 303); determining whether at least one predetermined criteria related to conditions of the multiple compressor chiller system is satisfied; and reducing the designated number of inverters to be enabled on startup by a predetermined amount in response to a determination that a predetermined criteria has been satisfied. providing a multiple compressor chiller system having a predetermined number of compressors (302, 303) and a variable speed drive, the variable speed drive having a predetermined number of inverters, wherein each inverter is configured to power a corresponding motor of a compressor (302, 303); characterized in that the method further comprises the steps of: designating a number of inverters to be enabled on startup of the multiple compressor chiller system, wherein the designated number of inverters to be enabled on startup being initially equal to the predetermined number of inverters, and wherein enabling of an inverter at startup of the multiple compressor chiller system starts a corresponding compressor (302, 303); determining whether at least one predetermined criteria related to conditions of the multiple compressor chiller system is satisfied; and reducing the designated number of inverters to be enabled on startup by a predetermined amount in response to a determination that a predetermined criteria has been satisfied. designating a number of inverters to be enabled on startup of the multiple compressor chiller system, wherein the designated number of inverters to be enabled on startup being initially equal to the predetermined number of inverters, and wherein enabling of an inverter at startup of the multiple compressor chiller system starts a corresponding compressor (302, 303); determining whether at least one predetermined criteria related to conditions of the multiple compressor chiller system is satisfied; and reducing the designated number of inverters to be enabled on startup by a predetermined amount in response to a determination that a predetermined criteria has been satisfied.
A power adjustment method for a common public radio interface, CPRI, system, comprising: obtaining a to-be-output signal; performing first automatic gain control, AGC, processing on the to-be-output signal to obtain the to-be-output signal on which the first AGC processing is performed, and to obtain a gain value of the to-be-output signal; performing digital pre-distortion, DPD, processing on the to-be-output signal on which the first AGC processing is performed, to obtain the to-be-output signal on which the DPD processing is performed; calculating an output power back-off, OBO, value based on the gain value; adjusting, based on the OBO value, output power of the to-be-output signal on which the DPD processing is performed; and sending, to a signal receive end, the power adjusted signal, wherein after the performing digital pre-distortion DPD processing on the to-be-output signal on which the first AGC processing is performed, the method further comprises: performing second AGC processing on the to-be-output signal on which the DPD processing is performed. obtaining a to-be-output signal; performing first automatic gain control, AGC, processing on the to-be-output signal to obtain the to-be-output signal on which the first AGC processing is performed, and to obtain a gain value of the to-be-output signal; performing digital pre-distortion, DPD, processing on the to-be-output signal on which the first AGC processing is performed, to obtain the to-be-output signal on which the DPD processing is performed; calculating an output power back-off, OBO, value based on the gain value; adjusting, based on the OBO value, output power of the to-be-output signal on which the DPD processing is performed; and sending, to a signal receive end, the power adjusted signal, wherein after the performing digital pre-distortion DPD processing on the to-be-output signal on which the first AGC processing is performed, the method further comprises: performing second AGC processing on the to-be-output signal on which the DPD processing is performed.
A method of producing a low-fat product from a starting material made of a fat and/or oil containing plant- or animal item, the method comprising the steps of: providing the starting material at a temperature of at least 35°C, and extracting a greater part of the extractable oil and/or fat originally contained in the plant or animal item from the starting material using a first decanter centrifuge, thereby leaving a residue of solids and liquids, the residue forming the low-fat product, wherein the first decanter centrifuge is of a two-phase type, characterized in that water and solids are discharged as a uniform slurry through a small end hub of the decanter centrifuge, while a relative clean oil is discharged via the large end hub of the decanter centrifuge, between the large end hub and the small end hub a bowl extends in a cylindrical shape adjacent the large end hub and in a conical shape adjacent the small end hub, a light phase discharge at the large end hub is in the first decanter centrifuge defining the outlet for the oily phase, whereas the slurry containing water and solids are discharged at a heavy phase outlet at the small end hub, a first liquid level being defined between the oily phase and the water phase in the bowl, the light phase discharge having a weir which is set to define the first liquid level at a specific distance from an axis allowing the oil/fat to be discharged at the light phase outlet but preventing solids/water to be discharged there. providing the starting material at a temperature of at least 35°C, and extracting a greater part of the extractable oil and/or fat originally contained in the plant or animal item from the starting material using a first decanter centrifuge, thereby leaving a residue of solids and liquids, the residue forming the low-fat product,
An apparatus comprising at least one processor and memory (44, 46), the memory storing executable instructions that, when executed by the at least one processor, implement a service layer entity of a communications network and cause the service layer entity to perform operations comprising: storing, in the memory, information comprising a policy associated with a target entity, the policy comprising information specifying at least one condition for triggering management of a flow of service layer messages to the target entity; collecting a service schedule of the target entity from metadata that is published to the service layer and is associated with the target entity; determining, based on the service schedule, to trigger management of the flow of service layer messages to the target entity; and managing, based on the trigger determination and other information of the policy, the flow of service layer messages to the target entity. storing, in the memory, information comprising a policy associated with a target entity, the policy comprising information specifying at least one condition for triggering management of a flow of service layer messages to the target entity; collecting a service schedule of the target entity from metadata that is published to the service layer and is associated with the target entity; determining, based on the service schedule, to trigger management of the flow of service layer messages to the target entity; and managing, based on the trigger determination and other information of the policy, the flow of service layer messages to the target entity.