mhurhangee/ep-ind-claims huggingface dataset:
A nickel cobalt manganese composite hydroxide represented by a general formula: Ni x Co y Mn z M t 2+a (wherein x+y+z+t=1, 0.20 ≤ x ≤ 0.80, 0.10 ≤ y ≤ 0.50, 0.10 ≤ z ≤ 0.90, 0 ≤ t ≤ 0.10, 0 ≤ a ≤ 0.5, and M is at least one additive element selected from Mg, Ca, Al, Ti, V, Cr, Zr, Nb, Mo, W), the nickel cobalt manganese composite hydroxide comprising: spherical secondary particles formed by aggregation of a plurality of plate-shaped primary particles, wherein the secondary particles have an average particle diameter of 3 μm to 20 μm, a sulfate radical content of 1.0 mass% or less, a chlorine content of 0.5 mass% or less, and a carbonate radical content of 1.0 mass% to 2.5 mass%. spherical secondary particles formed by aggregation of a plurality of plate-shaped primary particles, wherein the secondary particles have an average particle diameter of 3 μm to 20 μm, a sulfate radical content of 1.0 mass% or less, a chlorine content of 0.5 mass% or less, and a carbonate radical content of 1.0 mass% to 2.5 mass%.
A hub assembly for an agricultural implement, comprising: - a hub housing having an outer wall defining a mounting flange and an inner wall defining a through cavity; - an outer race ring unit comprising one or more outer race rings press-fitted into the through cavity, the outer race ring unit defining a reference axis of the hub assembly and having a first axial end bearing against a shoulder of the inner wall of the hub housing inside the through cavity, characterised in that it further comprises a semi-flexible open spacer ring radially elastically retained against the inner wall in the through cavity, the semi-flexible open spacer ring having an inner axial end bearing against a second axial end of the outer race ring unit opposite the first axial end and an outer axial end which is flush with, or protrudes from, a planar face of the mounting flange. - a hub housing having an outer wall defining a mounting flange and an inner wall defining a through cavity; - an outer race ring unit comprising one or more outer race rings press-fitted into the through cavity, the outer race ring unit defining a reference axis of the hub assembly and having a first axial end bearing against a shoulder of the inner wall of the hub housing inside the through cavity,
A method for additive manufacturing of a green block including a green object, said method comprising: printing a pattern on a building tray based on selectively depositing a solidifiable non-powder material, said pattern defined to form a partition by tracing a perimeter of the object to be printed per layer, and tracing a plurality of discrete support sections (710, 720, 725) of a support area around the object; wherein the pattern is printed with the solidifiable non-powder material; applying a layer of powder material over the pattern; compacting the layer of powder material and pattern of solidifiable non-powder material; repeating the printing, applying and compacting to build a plurality of layers of said green block; characterized in that: the solidifiable non-powder material is selected from the group consisting of a thermal ink, a photo-curable ink, wax, or any combination thereof, and the method comprises: removing the non-powder material; separating the green object from the discrete support sections (710, 720, 725); and sintering the green object separated from the discrete support sections (710, 720, 725). printing a pattern on a building tray based on selectively depositing a solidifiable non-powder material, said pattern defined to form a partition by tracing a perimeter of the object to be printed per layer, and tracing a plurality of discrete support sections (710, 720, 725) of a support area around the object; wherein the pattern is printed with the solidifiable non-powder material; applying a layer of powder material over the pattern; compacting the layer of powder material and pattern of solidifiable non-powder material; repeating the printing, applying and compacting to build a plurality of layers of said green block; characterized in that: the solidifiable non-powder material is selected from the group consisting of a thermal ink, a photo-curable ink, wax, or any combination thereof, and the method comprises: removing the non-powder material; separating the green object from the discrete support sections (710, 720, 725); and sintering the green object separated from the discrete support sections (710, 720, 725). removing the non-powder material; separating the green object from the discrete support sections (710, 720, 725); and sintering the green object separated from the discrete support sections (710, 720, 725).
A digital communication method, which is to perform a statistic multiplexing by allocating communication channels from a first station to a plurality of second stations in synchronization based on a multidimensional orthogonal resource hopping method, the digital communication method comprising: a) determining the distance from the first station to each second station; and b) using a transmit diversity of the first station to compensate for a signal loss to the second station being relatively far from the first station. a) determining the distance from the first station to each second station; and b) using a transmit diversity of the first station to compensate for a signal loss to the second station being relatively far from the first station.
An alkylated hydroxyaromatic compound prepared by a process comprising: reacting at least one hydroxyaromatic compound with at least one branched olefinic propylene oligomer having from 20 to 80 carbon atoms in the presence of an acid catalyst, wherein the at least one branched olefinic propylene oligomer has less than 1 wt. % of any vinylidene content, wherein the benzylic carbon attached to the hydroxyaromatic ring is substituted with one group being methyl or a branched alkyl group of 3 to 5 carbon atoms, a second group being a branched alkyl group of at least 18 carbon atoms having an average of one branch every 2 carbon atoms wherein each branch contains 1 to 2 carbon atoms, and a third group being a linear alkyl group of 1 to 5 carbon atoms, with the proviso that the carbon group directly attached to the benzylic carbon of each of the first and second groups is not a CH 2 group.
A user equipment, UE, comprising: one or more wireless transceivers configured to communicate using a first radio access technology, RAT, and a second RAT, wherein the first RAT and second RAT are serviced by one or more enhanced node Bs, eNBs; circuitry configured to: receive from one of the one or more eNBs scheduling information for the second RAT using the first RAT; and receive or transmit a message according to the scheduling information using the second RAT, wherein to receive or transmit a message according to the scheduling information using the second RAT further comprises to transmit the message using the second RAT and receive a response, using the first RAT, indicating whether the message was successfully received by the one or more eNBs using the second RAT, wherein indicating whether the message was successfully received by the one or more eNBs using the second RAT further comprises receiving acknowledgement/negative acknowledgement, ACK/NACK, feedback (622, 624; 722) using the first RAT physical uplink control channel, PUCCH, (626; 726), wherein a timing gap between physical downlink shared channel, PDSCH, (618, 620; 718, 720) on the second RAT and physical uplink control channel, PUCCH, (626; 726) on the first RAT is an integer number of transmission time intervals, TTIs, of the first RAT, and wherein a second RAT TTI, S-TTI, index is included in a determination of a resource index of the PUCCH (626; 726). one or more wireless transceivers configured to communicate using a first radio access technology, RAT, and a second RAT, wherein the first RAT and second RAT are serviced by one or more enhanced node Bs, eNBs; circuitry configured to: receive from one of the one or more eNBs scheduling information for the second RAT using the first RAT; and receive or transmit a message according to the scheduling information using the second RAT, receive from one of the one or more eNBs scheduling information for the second RAT using the first RAT; and receive or transmit a message according to the scheduling information using the second RAT, wherein to receive or transmit a message according to the scheduling information using the second RAT further comprises to transmit the message using the second RAT and receive a response, using the first RAT, indicating whether the message was successfully received by the one or more eNBs using the second RAT, wherein indicating whether the message was successfully received by the one or more eNBs using the second RAT further comprises receiving acknowledgement/negative acknowledgement, ACK/NACK, feedback (622, 624; 722) using the first RAT physical uplink control channel, PUCCH, (626; 726), wherein a timing gap between physical downlink shared channel, PDSCH, (618, 620; 718, 720) on the second RAT and physical uplink control channel, PUCCH, (626; 726) on the first RAT is an integer number of transmission time intervals, TTIs, of the first RAT, and wherein a second RAT TTI, S-TTI, index is included in a determination of a resource index of the PUCCH (626; 726).
Method for the preparation of compound of formula comprising a step STEP1, STEP1 comprises a reaction REAC1, in REAC1 compound of formula is converted to compound of formula by the action of a mixture MIX of concentrated sulphuric acid, oleum and fuming nitric acid.
A method for estimating a position of a rotor in a synchronous electric machine, wherein the method comprises the steps of: - inputting an initial rotor angle, in a known reference frame, into a power converter controlling the electric machine, - injecting a first voltage waveform ( u d, u q) into the power converter, wherein the first voltage waveform has a first fundamental frequency and comprises a component along a first axis of the reference frame and a component along a second axis being orthogonal to the first axis, and wherein the first voltage waveform is such that it effects the torque from the machine to vary between at least one positive torque value and at least one negative torque value and that the mean output torque is zero, - injecting a second voltage waveform ( u d h) into the power converter, wherein the second voltage waveform ( u d h) has a second fundamental frequency and comprises a component which is offset with an offset angle (δθ) with respect to the first axis in the reference frame, - determining a resulting second axis current (i q h) in the power converter at the second fundamental frequency, - adjusting, for each torque value, the offset angle (δθ) so that the resulting second axis current (i q h) at the second fundamental frequency becomes zero, characterised by storing a respective plurality of offset angle (δθ) values, and - estimating the position of the rotor based on the plurality of offset angle (δθ) values. - inputting an initial rotor angle, in a known reference frame, into a power converter controlling the electric machine, - injecting a first voltage waveform ( u d, u q) into the power converter, wherein the first voltage waveform has a first fundamental frequency and comprises a component along a first axis of the reference frame and a component along a second axis being orthogonal to the first axis, and wherein the first voltage waveform is such that it effects the torque from the machine to vary between at least one positive torque value and at least one negative torque value and that the mean output torque is zero, - injecting a second voltage waveform ( u d h) into the power converter, wherein the second voltage waveform ( u d h) has a second fundamental frequency and comprises a component which is offset with an offset angle (δθ) with respect to the first axis in the reference frame, - determining a resulting second axis current (i q h) in the power converter at the second fundamental frequency, - adjusting, for each torque value, the offset angle (δθ) so that the resulting second axis current (i q h) at the second fundamental frequency becomes zero, characterised by storing a respective plurality of offset angle (δθ) values, and - estimating the position of the rotor based on the plurality of offset angle (δθ) values.
A method of activation of a SIM in a machine-to-machine, M2M, mobile device, the SIM comprising an identification of a mobile network operator, MNO having a home location register HLR corresponding to the MNO, the method comprising: sending an authentication request from the SIM in a mobile device to the HLR, storing, in an HLR record corresponding to the SIM, predetermined time periods during which the HLR accepts authentication requests, for example a particular time every day, week, or month, such as a ten minute window once a month, and if the authentication request is made within the predetermined time periods and when the HLR does not contain a record that the SIM is activated, further instigating a provisioning request from the HLR to a provisioning server for the SIM; in response to the provisioning request, updating the HLR by sending an activation message from the provisioning server to the HLR so that the HLR contains a record that the SIM is activated such that subsequent authentication requests from the SIM are not rejected by the HLR; and if the authentication request is not made within the predetermined time periods, flagging up as possible abuse by the HLR, the authentication request. sending an authentication request from the SIM in a mobile device to the HLR, storing, in an HLR record corresponding to the SIM, predetermined time periods during which the HLR accepts authentication requests, for example a particular time every day, week, or month, such as a ten minute window once a month, and if the authentication request is made within the predetermined time periods and when the HLR does not contain a record that the SIM is activated, further instigating a provisioning request from the HLR to a provisioning server for the SIM; in response to the provisioning request, updating the HLR by sending an activation message from the provisioning server to the HLR so that the HLR contains a record that the SIM is activated such that subsequent authentication requests from the SIM are not rejected by the HLR; and if the authentication request is not made within the predetermined time periods, flagging up as possible abuse by the HLR, the authentication request.
A control device configured for use in a load control system to control one or more electrical loads (102, 104) external to the control device, the control device comprising: a base portion configured to be mounted to an electrical wallbox or over a mechanical switch; a rotating portion rotatable with respect to the base portion; characterized in that the control device further comprises an internal switch; an actuation portion comprising a front surface, the actuation portion configured to not actuate the internal switch when the front surface of the actuation portion is located in a first plane along an axis perpendicular to the base portion and to actuate the internal switch when the front surface of the actuation portion is moved into a second plane parallel to the first plane; and a control circuit (530, 614) configured to generate first control data for changing an intensity of the one or more electrical loads (102, 104) in response to detecting that the rotating portion is being rotated and determining that the front surface of the actuation portion is located in the first plane, the control circuit (530, 614) further configured to generate second control data for changing a color of the one or more electrical loads (102, 104) in response to detecting that the rotating portion is being rotated and determining that the front surface of the actuation portion is located in the second plane. a base portion configured to be mounted to an electrical wallbox or over a mechanical switch; a rotating portion rotatable with respect to the base portion; characterized in that the control device further comprises an internal switch; an actuation portion comprising a front surface, the actuation portion configured to not actuate the internal switch when the front surface of the actuation portion is located in a first plane along an axis perpendicular to the base portion and to actuate the internal switch when the front surface of the actuation portion is moved into a second plane parallel to the first plane; and a control circuit (530, 614) configured to generate first control data for changing an intensity of the one or more electrical loads (102, 104) in response to detecting that the rotating portion is being rotated and determining that the front surface of the actuation portion is located in the first plane, the control circuit (530, 614) further configured to generate second control data for changing a color of the one or more electrical loads (102, 104) in response to detecting that the rotating portion is being rotated and determining that the front surface of the actuation portion is located in the second plane.
Cosmetic process for treating keratin materials comprising the application to said materials of a cosmetic composition comprising, in a cosmetically acceptable medium, at least one dyestuff comprising a biopolyester and a colouring compound, said biopolyester comprising repeating units of formula, alone or as a mixture: in which: - R is a linear or branched saturated C1-C18 alkyl chain, or a hydrogen atom; - m = 0 or 1; and - n is between 450 and 1400; said colouring compound being titanium oxide and being encapsulated or coated with the said biopolyester. - R is a linear or branched saturated C1-C18 alkyl chain, or a hydrogen atom; - m = 0 or 1; and - n is between 450 and 1400;
A method for transcript-based bot creation, the method comprising: storing information in memory regarding a set of different automation templates associated with different statement types; importing a transcript via a communication interface, the imported transcript comprising a plurality of statements; analyzing the imported transcript to classify the statements as one or more of the different statement types; matching the classified statements of the imported transcript to one or more of the stored automation templates associated with the respective statement type of the classified statement; displaying the imported transcript in a graphic user interface, wherein the classified statements within the transcript are displayed in association with the matching automation templates associated with the respective statement type of the classified statement; receiving user input that modifies at least one automation template associated with the displayed transcript, the statement associated with the modified automation template being designated as an integration point where an automated action or workflow may be initiated; and generating a custom bot configured to conduct a conversation based on the imported template and to initiate a workflow at the integration point in accordance with the at least one modified automation template. storing information in memory regarding a set of different automation templates associated with different statement types; importing a transcript via a communication interface, the imported transcript comprising a plurality of statements; analyzing the imported transcript to classify the statements as one or more of the different statement types; matching the classified statements of the imported transcript to one or more of the stored automation templates associated with the respective statement type of the classified statement; displaying the imported transcript in a graphic user interface, wherein the classified statements within the transcript are displayed in association with the matching automation templates associated with the respective statement type of the classified statement; receiving user input that modifies at least one automation template associated with the displayed transcript, the statement associated with the modified automation template being designated as an integration point where an automated action or workflow may be initiated; and generating a custom bot configured to conduct a conversation based on the imported template and to initiate a workflow at the integration point in accordance with the at least one modified automation template.
A display panel, divided into a display area and a non-display area, the display panel comprising: a first substrate; a second substrate, disposed corresponding to the first substrate; and a sealant, arranged between the first substrate and the second substrate, and arranged in the non-display area; wherein the first substrate comprises a first metal layer and a second metal layer that are arranged in sequence corresponding to the non-display area, and that are insulated from each other; wherein the first metal layer comprises a first metal wire group and the second metal layer comprises a second metal wire group; the first metal wire group comprises at least one sub-wire, the second metal wire group comprises at least one sub-connection wire; the at least one sub-wire of the first metal wire group and the at least one sub-connection wire of the second metal wire group are connected in one-to-one correspondence through a set of bridging structures, wherein the set of bridging structures comprises at least one bridging structure; wherein a side of the sealant adjacent to the display area is an inner side of the sealant, and a side of the sealant far away from the display area is an outer side of the sealant; wherein the set of bridging structures are each disposed on a side of an outer edge of the sealant adjacent to the display area; wherein of the set of bridging structures, the bridging structure closest to the outer edge of the sealant is an outermost bridging structure, and wherein a distance separating the outermost bridging structure from the outer edge of the sealant is at least 50 μm. a first substrate; a second substrate, disposed corresponding to the first substrate; and a sealant, arranged between the first substrate and the second substrate, and arranged in the non-display area; wherein the first substrate comprises a first metal layer and a second metal layer that are arranged in sequence corresponding to the non-display area, and that are insulated from each other; wherein the first metal layer comprises a first metal wire group and the second metal layer comprises a second metal wire group; the first metal wire group comprises at least one sub-wire, the second metal wire group comprises at least one sub-connection wire; the at least one sub-wire of the first metal wire group and the at least one sub-connection wire of the second metal wire group are connected in one-to-one correspondence through a set of bridging structures, wherein the set of bridging structures comprises at least one bridging structure; wherein a side of the sealant adjacent to the display area is an inner side of the sealant, and a side of the sealant far away from the display area is an outer side of the sealant; wherein the set of bridging structures are each disposed on a side of an outer edge of the sealant adjacent to the display area; wherein of the set of bridging structures, the bridging structure closest to the outer edge of the sealant is an outermost bridging structure, and wherein a distance separating the outermost bridging structure from the outer edge of the sealant is at least 50 μm.