mhurhangee/patent-ind-claim-en huggingface dataset:
Esterquats obtainable by reacting di- or trialkanolamines with a mixture of fatty acids and polycarboxylic acids and quaternizing the resultant esters subsequently with an alkylating agent, where the di- or trialkanolamines conform to the formula (I) in which R 1 and R 2 independently of one another are hydroxyalkyl radicals having 1 to 20 carbon atoms, hydroxyalkenyl radicals having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, or adducts of 1 to 20 mol of ethylene oxide onto a hydroxyethyl radical, and R 3 is hydrogen, an alkyl radical having 1 to 20 carbon atoms, an alkenyl radical having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, a hydroxyalkyl radical having 1 to 20 carbon atoms, a hydroxyalkenyl radical having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, or adducts of 1 to 20 mol of ethylene oxide onto a hydroxyethyl radical, and where the fatty acids conform to the formula (II), R 4 -COOH (II) in which R 4 is an aliphatic, linear or branched hydrocarbon radical having 5 to 29 carbon atoms and 0, 1, 2, or 3 double bonds, characterized in that the polycarboxylic acids conform to the formula (III) in which Y is a carbon atom or a saturated or unsaturated, aliphatic hydrocarbon group having 2 to 5 carbon atoms and optionally carrying one or more hydroxyl groups, and X is hydrogen, a hydroxyl or a carboxylic acid group. R 1 and R 2 independently of one another are hydroxyalkyl radicals having 1 to 20 carbon atoms, hydroxyalkenyl radicals having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, or adducts of 1 to 20 mol of ethylene oxide onto a hydroxyethyl radical, and R 3 is hydrogen, an alkyl radical having 1 to 20 carbon atoms, an alkenyl radical having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, a hydroxyalkyl radical having 1 to 20 carbon atoms, a hydroxyalkenyl radical having 2 to 20 carbon atoms and 1, 2, or 3 double bonds, or adducts of 1 to 20 mol of ethylene oxide onto a hydroxyethyl radical, and where R 4 is an aliphatic, linear or branched hydrocarbon radical having 5 to 29 carbon atoms and 0, 1, 2, or 3 double bonds, characterized in that Y is a carbon atom or a saturated or unsaturated, aliphatic hydrocarbon group having 2 to 5 carbon atoms and optionally carrying one or more hydroxyl groups, and X is hydrogen, a hydroxyl or a carboxylic acid group.
Bearing arrangement, which comprises at least one shaft , a bearing with an inner race, and a flange part , wherein the shaft is mounted against the flange part by means of the bearing , wherein the flange part has a radially extending lubrication channel and recesses, in particular bores, wherein spring elements are arranged in the recesses of the flange part for adjusting the bearing , wherein an annular part is arranged in a depression of the flange part between the flange part and the bearing , wherein the annular part has such an aperture that the radially extending lubrication channel is diverted into the axial direction, wherein a groove which extends in the circumferential direction is formed between the annular part and the flange part , wherein apertures provided in the annular part connects the side facing the flange part to the side remote from the flange part , in particular such that lubricant entering through the radially extending lubrication channel is diverted by the annular part into the axial direction towards the bearing , wherein the annular part is screw-connected to the flange part , wherein, in the event of failure of the spring elements , the inner race is bounded axially by the annular part .
A method in a first node of a telecommunications network, the method comprising: in a Radio Link Control, RLC, controller of the first node: attempting to transmit a plurality of RLC data Protocol Data Units, PDUs, each containing a respective part of a Service Data Unit, SDU, towards a second node of the telecommunications network; detecting (S101) a failure to transmit a first RLC data PDU of the plurality of RLC data PDUs; and notifying (SI02) a Radio Access Control, RAC, controller , of the first node, of the failure; in the RAC controller of the first node: in response to receiving a dedicated control channel, DCCH, message from the second node subsequent to said notification, instructing (S104) the RLC controller to retransmit the SDU; and in the RLC controller of the first node: in response to the instruction, transmitting (SI05) a second RLC data PDU containing the part of the SDU contained within the first RLC data PDU towards the second node; and in further response to the instruction, transmitting (S106) a receipt of delivery to the RAC controller when reception of all parts of the SDU has been positively acknowledged by the second node. in a Radio Link Control, RLC, controller of the first node: attempting to transmit a plurality of RLC data Protocol Data Units, PDUs, each containing a respective part of a Service Data Unit, SDU, towards a second node of the telecommunications network; detecting (S101) a failure to transmit a first RLC data PDU of the plurality of RLC data PDUs; and notifying (SI02) a Radio Access Control, RAC, controller , of the first node, of the failure; attempting to transmit a plurality of RLC data Protocol Data Units, PDUs, each containing a respective part of a Service Data Unit, SDU, towards a second node of the telecommunications network; detecting (S101) a failure to transmit a first RLC data PDU of the plurality of RLC data PDUs; and notifying (SI02) a Radio Access Control, RAC, controller , of the first node, of the failure; in the RAC controller of the first node: in response to receiving a dedicated control channel, DCCH, message from the second node subsequent to said notification, instructing (S104) the RLC controller to retransmit the SDU; and in the RLC controller of the first node: in response to the instruction, transmitting (SI05) a second RLC data PDU containing the part of the SDU contained within the first RLC data PDU towards the second node; and in further response to the instruction, transmitting (S106) a receipt of delivery to the RAC controller when reception of all parts of the SDU has been positively acknowledged by the second node. in response to the instruction, transmitting (SI05) a second RLC data PDU containing the part of the SDU contained within the first RLC data PDU towards the second node; and in further response to the instruction, transmitting (S106) a receipt of delivery to the RAC controller when reception of all parts of the SDU has been positively acknowledged by the second node.
A method of wireless communication, the method comprising: receiving a first signal at a user equipment, UE, from a transmitting device using a first beam for beamformed wireless communication between the transmitting device and the UE, wherein the first beam uses a first set of one or more antenna elements of the UE; determining a channel quality metric associated with a channel between the UE and the transmitting device based on a measurement of a reference signal received on the first beam from the transmitting device; identifying a type of the reference signal used for determining the channel quality metric; selecting a channel quality threshold from a plurality of different thresholds based on the identification of the type of the reference signal used for determining the channel quality metric; comparing the channel quality metric with the channel quality threshold; adjusting a number of antenna elements used for beamformed wireless communication between the transmitting device and the UE based on the comparison between the channel quality metric and the channel quality threshold; and receiving a second signal at the UE from the transmitting device using a second beam for beamformed wireless communication between the transmitting device and the UE, wherein the second beam uses a second set of one or more antenna elements of the UE that has a different number of antenna elements than the first set of one or more antenna elements based on the adjustment of the number of antenna elements used for beamformed wireless communication between the transmitting device and the UE. receiving a first signal at a user equipment, UE, from a transmitting device using a first beam for beamformed wireless communication between the transmitting device and the UE, wherein the first beam uses a first set of one or more antenna elements of the UE; determining a channel quality metric associated with a channel between the UE and the transmitting device based on a measurement of a reference signal received on the first beam from the transmitting device; identifying a type of the reference signal used for determining the channel quality metric; selecting a channel quality threshold from a plurality of different thresholds based on the identification of the type of the reference signal used for determining the channel quality metric; comparing the channel quality metric with the channel quality threshold; adjusting a number of antenna elements used for beamformed wireless communication between the transmitting device and the UE based on the comparison between the channel quality metric and the channel quality threshold; and receiving a second signal at the UE from the transmitting device using a second beam for beamformed wireless communication between the transmitting device and the UE, wherein the second beam uses a second set of one or more antenna elements of the UE that has a different number of antenna elements than the first set of one or more antenna elements based on the adjustment of the number of antenna elements used for beamformed wireless communication between the transmitting device and the UE.
An amorphous solid for use in aerosol generation, the amorphous solid comprising: about 1 to about 50 wt% constituent, derivative or extract of cannabis; about 10 to about 80 wt% aerosol-former material; gelling agent, the gelling agent comprising cellulose or a derivative thereof, and a non-cellulosic gelling agent; and optionally filler, wherein the amount of gelling agent and optional filler taken together is from about 10 to about 60 wt%; wherein the wt% values are calculated on a dry weight basis. about 1 to about 50 wt% constituent, derivative or extract of cannabis; about 10 to about 80 wt% aerosol-former material; gelling agent, the gelling agent comprising cellulose or a derivative thereof, and a non-cellulosic gelling agent; and optionally filler, wherein the amount of gelling agent and optional filler taken together is from about 10 to about 60 wt%;
Closing arrangement for a cap of a tube , the cap being connected to or integrally formed with the tube , in a carrier, wherein the arrangement comprises at least a first, a second and a third moveable engagement member, the first member being adapted to induce a first part of the cap rotation and the second member being adapted to induce a second part of the cap rotation and the third member being adapted to induce a third part of the cap rotation for closure.
An organic light emitting display apparatus comprising: a substrate configured to include an active area (AA) and a pad area (PA); an anode electrode disposed in the active area (AA) of the substrate ; an organic emission layer disposed on the anode electrode ; a cathode electrode disposed on the organic emission layer ; an auxiliary electrode connected to the cathode electrode ; a signal pad disposed in the pad area (PA) of the substrate ; a first pad electrode connected to the signal pad to cover a top of the signal pad , and a second pad electrode disposed on the first pad electrode , wherein the auxiliary electrode comprises a first auxiliary electrode and a second auxiliary electrode connected to the first auxiliary electrode through a contact hole (CH5), and the first pad electrode is formed of the same material as a material of the first auxiliary electrode , the first pad electrode comprises a first lower pad electrode , a first upper pad electrode , and a first cover pad electrode , the first cover pad electrode is disposed to cover a top and a side surface of the first upper pad electrode , the first cover pad electrode is lower in oxidation rate than the top of the signal pad , and the second pad electrode is formed of the same material as a material of the second auxiliary electrode . a substrate configured to include an active area (AA) and a pad area (PA); an anode electrode disposed in the active area (AA) of the substrate ; an organic emission layer disposed on the anode electrode ; a cathode electrode disposed on the organic emission layer ; an auxiliary electrode connected to the cathode electrode ; a signal pad disposed in the pad area (PA) of the substrate ; a first pad electrode connected to the signal pad to cover a top of the signal pad , and a second pad electrode disposed on the first pad electrode , wherein the auxiliary electrode comprises a first auxiliary electrode and a second auxiliary electrode connected to the first auxiliary electrode through a contact hole (CH5), and the first pad electrode is formed of the same material as a material of the first auxiliary electrode , the first pad electrode comprises a first lower pad electrode , a first upper pad electrode , and a first cover pad electrode , the first cover pad electrode is disposed to cover a top and a side surface of the first upper pad electrode , the first cover pad electrode is lower in oxidation rate than the top of the signal pad , and the second pad electrode is formed of the same material as a material of the second auxiliary electrode .
A method for quantifying the adhesion capacity of fluorescent microspheres to the surface of vegetable seeds by means of an adhesive composition, characterized in that it comprises the following steps: a. -) takingan adhesive composition comprising an aqueous solution of corn steep liquor and/or soya protein hydrolysates, b -) mixing the adhesive composition of step a) with silica or polyethylene fluorescent microspheres with a particle size of between 1 - 120 microns and continuing to stir, c -) placing the vegetable seeds into contact with the mixture of step b), d -) drying the seeds at room temperature, e -) obtaining images of the fluorescent microspheres adhered to the seeds by fluorescence microscopy, exposing them to ultraviolet (UV) light corresponding to a wavelength of 365 nm, and f -) counting the fluorescent microspheres adhered to the seeds based on the images obtained in step e). a. -) takingan adhesive composition comprising an aqueous solution of corn steep liquor and/or soya protein hydrolysates, b -) mixing the adhesive composition of step a) with silica or polyethylene fluorescent microspheres with a particle size of between 1 - 120 microns and continuing to stir, c -) placing the vegetable seeds into contact with the mixture of step b), d -) drying the seeds at room temperature, e -) obtaining images of the fluorescent microspheres adhered to the seeds by fluorescence microscopy, exposing them to ultraviolet (UV) light corresponding to a wavelength of 365 nm, and f -) counting the fluorescent microspheres adhered to the seeds based on the images obtained in step e).
A system comprising a connector for a power conversion device and a housing of the power conversion device, wherein the housing comprising an opening part , which is connectable with the connector and which is formed in the housing , wherein an annular core is inserted through the opening part being sandwiched between the housing and a partition member , said partition member being incorporated into the housing and has a core fixing part and a partition wall that protrudes to the inner peripheral side of the annular core ; and the connector , which is arranged in the housing of the power conversion device, comprising: a wiring line which is configured to transmit DC power; wherein said connector has a connection detection wiring line which is configured to detect whether the connector is connected with an external circuit, the wiring line and the connection detection wiring line are introduced into an inside of the housing through an inner peripheral side of the annular core formed of a magnetic substance, the partition member is arranged between the wiring line and the connection detection wiring line , and the wiring line and the connection detection wiring line are separated by the partition wall on the inner peripheral side of the annular core . the housing comprising an opening part , which is connectable with the connector and which is formed in the housing , wherein an annular core is inserted through the opening part being sandwiched between the housing and a partition member , said partition member being incorporated into the housing and has a core fixing part and a partition wall that protrudes to the inner peripheral side of the annular core ; and the connector , which is arranged in the housing of the power conversion device, comprising: a wiring line which is configured to transmit DC power; wherein said connector has a connection detection wiring line which is configured to detect whether the connector is connected with an external circuit, the wiring line and the connection detection wiring line are introduced into an inside of the housing through an inner peripheral side of the annular core formed of a magnetic substance, the partition member is arranged between the wiring line and the connection detection wiring line , and the wiring line and the connection detection wiring line are separated by the partition wall on the inner peripheral side of the annular core . a wiring line which is configured to transmit DC power; wherein said connector has a connection detection wiring line which is configured to detect whether the connector is connected with an external circuit, the wiring line and the connection detection wiring line are introduced into an inside of the housing through an inner peripheral side of the annular core formed of a magnetic substance, the partition member is arranged between the wiring line and the connection detection wiring line , and the wiring line and the connection detection wiring line are separated by the partition wall on the inner peripheral side of the annular core .
Method for evaluating the condition of a wedge drive of a device , in particular a press, which wedge drive performs a working stroke and a return stroke in the opposite direction to the working stroke in order to deflect a force (P), in particular pressing force, in which method the actual temperature (T) of the wedge drive is measured, characterized in that a plurality of actual temperature values (T1, T2) are recorded continuously or at time intervals during the working and/or return stroke of the wedge drive and a temporal actual temperature curve (T(t)) is formed from these recorded actual temperature values (T1, T2), from which actual temperature curve (T(t)) an actual oscillation amplitude is determined for the condition evaluation of the wedge drive .
Vehicle crane comprising hydropneumatic suspension and comprising a braking system having wheel brakes and having a first braking circuit (K1) assigned to the wheel brakes of at least one vehicle axle (A6, A7, A8) and at least a second braking circuit (K2) assigned to the wheel brakes of at least one further vehicle axle (A1, A2, A3, A4, A5), characterised in that the hydropneumatic suspension is coupled to at least one automatic load-dependent braking force regulator which is operatively connected to one of the braking circuits (K1, K2) or one of the braking circuit portions (K2.1, K2.2) thereof such that, on the basis of a weight state signal of the vehicle crane which can be generated from the hydropneumatic suspension , a braking pressure (P1) which can be generated within the braking circuit (K2) or braking circuit portion (K2.2) coupled to the automatic load-dependent braking force regulator can be changed in relation to a braking pressure (P2, P3) which can be generated simultaneously within the other braking circuit (K1) or braking circuit portion (K2.1), wherein the braking pressure (P1) that can be generated within the braking circuit (K2) or braking circuit portion (K2.2) coupled to the automatic load-dependent braking force regulator corresponds to the braking pressure (P2, P3) that can be generated simultaneously within the other braking circuit (K1) and/or braking circuit portion (K2.1) without being changed by the automatically load-dependent braking force regulator , wherein the braking pressure (P1) that can be generated within the braking circuit (K2) or braking circuit portion (K2.2) coupled to the automatic load-dependent braking force regulator can be regulated, in particular can be reduced, by the automatic load-dependent braking force regulator compared with the value of the braking pressure (P2, P3) that can be generated simultaneously within the other braking circuit (K1) and/or braking circuit portion (K2.1).
A method comprising: simultaneously conducting a first seismic sweep on a first vibrator and a second seismic sweep on a second vibrator with the sweeps at a relative phase offset from one another; characterized in that the phase offset is constant during part of the simultaneous sweeping and increases or decreases during another part of the simultaneous sweeping, wherein the method comprises determining a first phase for the first sweep and second and third phases for the second sweep; and conducting the first sweep at the first phase while simultaneously conducting the second sweep starting at the second phase and then smoothly increasing or decreasing the phase offset by changing the phase of the second sweep from the second phase to the third phase during a portion of the simultaneous sweeps while the first sweep is still being conducted, and then simultaneously conducting the second sweep at the third phase during a second portion of the simultaneous sweeps. simultaneously conducting a first seismic sweep on a first vibrator and a second seismic sweep on a second vibrator with the sweeps at a relative phase offset from one another; characterized in that the phase offset is constant during part of the simultaneous sweeping and increases or decreases during another part of the simultaneous sweeping, wherein the method comprises determining a first phase for the first sweep and second and third phases for the second sweep; and conducting the first sweep at the first phase while simultaneously conducting the second sweep starting at the second phase and then smoothly increasing or decreasing the phase offset by changing the phase of the second sweep from the second phase to the third phase during a portion of the simultaneous sweeps while the first sweep is still being conducted, and then simultaneously conducting the second sweep at the third phase during a second portion of the simultaneous sweeps.