mhurhangee/ep-ind-claims huggingface dataset:
An aqueous latex composition comprising latex particles comprising a first phase polymer, and a second phase polymer, wherein the first phase polymer is polymerized from a first set of monomers comprising at least about 95 wt. % of one or more acrylic monomers in the first phase polymer; and the second phase polymer is polymerized from a second set of monomers comprising at least one acrylic monomer, at least one vinyl monomer and from about 0.5 wt. % to about 6 wt. % of a crosslinkable monomer in the second phase polymer; wherein the second phase polymer comprises from about 50 wt. % to about 95 wt. % based on the total weight of the polymers in the latex particles; and wherein the crosslinkable monomer is selected from the group consisting of diacetone acrylamide, diacetone methacrylamide and acetoacetoxyethyl methacrylate or a combination thereof, and wherein the aqueous latex composition further comprises a cross-linking agent in an aqueous phase to crosslink with the crosslinkable monomer when water evaporates, and wherein a total amount of vinyl monomer in the latex particles is greater than about 50 wt. % of the latex particles and a ratio of vinyl monomer to acrylic monomer in the latex particles is less than about 95:5.
A method of transmitting a signal by a wireless power transmitter, the method comprising: periodically transmitting a first beacon signal with a first period for a first transmission period of time in every said first period; periodicallly transmitting a second beacon signal with a second period for a second transmission period of time in every said second period; detecting load changes while transmitting the second beacon signal; in response to the detected load changes, extending the second transmission period of time to a third transmission period of time, wherein the third transmission period of time is a predetermined time and the third transmission period of time is less than or equal to 7 seconds; and transmitting the second beacon signal for the third transmission period of time. periodically transmitting a first beacon signal with a first period for a first transmission period of time in every said first period; periodicallly transmitting a second beacon signal with a second period for a second transmission period of time in every said second period; detecting load changes while transmitting the second beacon signal; in response to the detected load changes, extending the second transmission period of time to a third transmission period of time, wherein the third transmission period of time is a predetermined time and the third transmission period of time is less than or equal to 7 seconds; and transmitting the second beacon signal for the third transmission period of time.
An anionic polymerization initiator, which is a reaction product of an organometallic compound and a compound including an alkyl chain having a tertiary amino functional group, wherein the anionic polymerization initiator is 1-(diethylaminomethyl)-2,4,6-trimethylbenzene or 1-(diisopropylaminomethyl)-2,4,6-trimethylbenzene.
A diagnostic test strip including a proximal connecting end and a distal end, the test strip comprising: at least one electrically insulating substrate layer; a plurality of electrical strip contacts disposed on the at least one insulating substrate layer near the distal end of the test strip, at least one electrode disposed on the at least one insulating substrate layer near the proximal end of the test strip; conductive traces electrically connecting the electrodes to at least some of the electrical strip contacts; and a reagent layer contacting at least a portion of at least one electrode, wherein the electrical strip contacts include a first conductive layer disposed on the substrate and a second conductive layer disposed on top of the first conductive layer, wherein the first conductive layer includes a conductive metallic material characterised in that the second conductive layer includes a carbon-based material. at least one electrically insulating substrate layer; a plurality of electrical strip contacts disposed on the at least one insulating substrate layer near the distal end of the test strip, at least one electrode disposed on the at least one insulating substrate layer near the proximal end of the test strip; conductive traces electrically connecting the electrodes to at least some of the electrical strip contacts; and a reagent layer contacting at least a portion of at least one electrode, wherein the electrical strip contacts include a first conductive layer disposed on the substrate and a second conductive layer disposed on top of the first conductive layer, wherein the first conductive layer includes a conductive metallic material characterised in that the second conductive layer includes a carbon-based material.
Self lock mechanism for rotating actuators, allowing rotation from one side while denying rotation from the other side, the mechanism comprising one or more sets of rollers and arranged between a housing and a valve connection part with a shape which will press one of the rollers in each set against the housing wall, locking the self lock mechanism if a torque is applied from the valve side and that a motor connection part is configured so that it will press the rollers out of locking position and release the locking before the motor connection part makes contact with the valve connection part and start transferring torque, characterized in that a spring is arranged between each of the roller in a pair, the spring has stiffness and a length so as to provide a force which is sufficient for keeping the rollers in position but not sufficient to cause considerable friction between rollers and housing, and thereby allow a motor to rotate the gear trough the self lock mechanism with relatively small torque and power losses in the self lock mechanism.
An apparatus for use in measuring a property of a fluid, the apparatus comprising: a conduit comprising an inlet through which fluid can enter the conduit; a movable member retained within the conduit, the movable member configured to move in accordance with the property of the fluid in the conduit; and a magnetic field generating unit for generating one or more magnetic fields in the conduit, an interaction between the movable member and the one or more magnetic fields being detectable via the magnetic field generating unit, to measure the property, characterised in that the conduit comprises a first end and a second end, and the apparatus further comprises one or more magnet pairs (21a, 21b) for urging the moveable member away from one or both of the first end and the second end of the conduit, a first magnet of a magnet pair of the one or more magnet pairs being provided at the first end or the second end of the conduit, and a second magnet of said magnet pair of the one or more magnet pairs being provided at a corresponding end of the moveable member. a conduit comprising an inlet through which fluid can enter the conduit; a movable member retained within the conduit, the movable member configured to move in accordance with the property of the fluid in the conduit; and a magnetic field generating unit for generating one or more magnetic fields in the conduit, an interaction between the movable member and the one or more magnetic fields being detectable via the magnetic field generating unit, to measure the property, characterised in that the conduit comprises a first end and a second end, and the apparatus further comprises one or more magnet pairs (21a, 21b) for urging the moveable member away from one or both of the first end and the second end of the conduit, a first magnet of a magnet pair of the one or more magnet pairs being provided at the first end or the second end of the conduit, and a second magnet of said magnet pair of the one or more magnet pairs being provided at a corresponding end of the moveable member.
A method of controlling clutch pressure in an electronically controlled hydraulic limited slip differential, comprising: receiving a target clutch pressure command indicative of a desired differential torque transfer setting; receiving a measured hydraulic pressure and a measured temperature of hydraulic fluid used to control a clutch of the differential; processing the received pressure and temperature to convert the target clutch pressure command into a motor speed control command or a motor duty cycle command by applying one of a proportional integral derivative calculation and a linear quadratic regulator calculation while carrying out a closed loop control; applying the motor speed control command or the motor duty cycle command to a motor supplying hydraulic fluid to the clutch; converting the target clutch pressure command, based on the received pressure and temperature, in to a valve pressure command by applying control gain adaptation and by applying a sliding mode calculation, while carrying out open loop pressure control; applying the valve pressure command to a pressure control valve connected to the clutch; measuring the actual clutch pressure resulting from the applied valve pressure command and resulting from the applied motor speed control command and the applied motor duty cycle command; and applying the measured actual clutch pressure to the closed loop control and to the open loop pressure control. receiving a target clutch pressure command indicative of a desired differential torque transfer setting; receiving a measured hydraulic pressure and a measured temperature of hydraulic fluid used to control a clutch of the differential; processing the received pressure and temperature to convert the target clutch pressure command into a motor speed control command or a motor duty cycle command by applying one of a proportional integral derivative calculation and a linear quadratic regulator calculation while carrying out a closed loop control; applying the motor speed control command or the motor duty cycle command to a motor supplying hydraulic fluid to the clutch; converting the target clutch pressure command, based on the received pressure and temperature, in to a valve pressure command by applying control gain adaptation and by applying a sliding mode calculation, while carrying out open loop pressure control; applying the valve pressure command to a pressure control valve connected to the clutch; measuring the actual clutch pressure resulting from the applied valve pressure command and resulting from the applied motor speed control command and the applied motor duty cycle command; and applying the measured actual clutch pressure to the closed loop control and to the open loop pressure control.
A method for wireless communications, comprising: identifying, at an upper layer of a multi-radio user equipment, UE, a type of incoming broadcast stream data; determining a coexistence policy for operation of a broadband radio and a broadcast stream receiver that receives the broadcast stream data within the multi-radio UE based on the type of the incoming broadcast stream data; and arbitrating, at a lower layer of the multi-radio UE, between the communication resources based on the coexistence policy by reducing a transmission power of the broadband radio when the identified type of incoming broadcast stream data is one of audio data and reference video frame data. identifying, at an upper layer of a multi-radio user equipment, UE, a type of incoming broadcast stream data; determining a coexistence policy for operation of a broadband radio and a broadcast stream receiver that receives the broadcast stream data within the multi-radio UE based on the type of the incoming broadcast stream data; and arbitrating, at a lower layer of the multi-radio UE, between the communication resources based on the coexistence policy by reducing a transmission power of the broadband radio when the identified type of incoming broadcast stream data is one of audio data and reference video frame data.
Skin treatment system, comprising: a functional member configured to perform a treatment action on skin and to be moved over the skin during operation of the system, a controller configured to control operation of the skin treatment system, and a measurement unit including a measurement member configured to be moved over the skin along with the functional member and to be made to indent the skin in the process, wherein the measurement member is displaceable in the measurement unit, and wherein the measurement unit is configured to measure a value related to an extent to which the measurement member gets displaced relative to a default position in the measurement unit by action of the skin, wherein the controller is further configured to receive the measured value from the measurement unit and to use the measured value as a determining factor in an action of determining at least one parameter of operation of the skin treatment system, characterized in that: the measured value corresponds to a measure of an extent to which the skin is indented by the measurement member. a functional member configured to perform a treatment action on skin and to be moved over the skin during operation of the system, a controller configured to control operation of the skin treatment system, and a measurement unit including a measurement member configured to be moved over the skin along with the functional member and to be made to indent the skin in the process, wherein the measurement member is displaceable in the measurement unit, and wherein the measurement unit is configured to measure a value related to an extent to which the measurement member gets displaced relative to a default position in the measurement unit by action of the skin, wherein the controller is further configured to receive the measured value from the measurement unit and to use the measured value as a determining factor in an action of determining at least one parameter of operation of the skin treatment system, characterized in that: the measured value corresponds to a measure of an extent to which the skin is indented by the measurement member.
An antenna, comprising: - a plurality of first unit cells, wherein each of the first unit cells includes a first pair of low-band radiators arranged along an azimuth axis and a first plurality of high-band radiators (140, 142), wherein the first pair of low-band radiators and the first plurality of high-band radiators (140, 142) are arranged in a first configuration; and - a plurality of second unit cells, wherein each of the second unit cells includes a second pair of low-band radiators arranged along the azimuth axis and a second plurality of high-band radiators (140, 142), wherein the second pair of low-band radiators and the second plurality of high-band radiators (140, 142) are arranged in a second configuration; wherein - the first and second configurations of the first and second plurality of unit cells (110, 120) alternate along a pitch axis of the antenna; - each of the first unit cells comprises a total of two L-shaped, back-to-back low-band radiators (134a, 134b) and each of the second unit cells comprises a total of two L-shaped, face-to-face low-band radiators (136a, 136b); and - the first and second configurations are configured such that each of the first and second pair of low-band radiators (130, 132) has a relative azimuth spacing corresponding to an array factor in an azimuth direction which improves a roll-off of a main lobe of a radiation pattern of the antenna. - a plurality of first unit cells, wherein each of the first unit cells includes a first pair of low-band radiators arranged along an azimuth axis and a first plurality of high-band radiators (140, 142), wherein the first pair of low-band radiators and the first plurality of high-band radiators (140, 142) are arranged in a first configuration; and - a plurality of second unit cells, wherein each of the second unit cells includes a second pair of low-band radiators arranged along the azimuth axis and a second plurality of high-band radiators (140, 142), wherein the second pair of low-band radiators and the second plurality of high-band radiators (140, 142) are arranged in a second configuration; - the first and second configurations of the first and second plurality of unit cells (110, 120) alternate along a pitch axis of the antenna; - each of the first unit cells comprises a total of two L-shaped, back-to-back low-band radiators (134a, 134b) and each of the second unit cells comprises a total of two L-shaped, face-to-face low-band radiators (136a, 136b); and - the first and second configurations are configured such that each of the first and second pair of low-band radiators (130, 132) has a relative azimuth spacing corresponding to an array factor in an azimuth direction which improves a roll-off of a main lobe of a radiation pattern of the antenna.
A ferritic stainless steel sheet excellent in workability consisting of, by mass%, Cr: 10 to 30%, Sn: 0.005 to 1%, C: 0.001 to 0.1%, N: 0.001 to 0.1%, Si: 0.01 to 3.0%, Mn: 0.01 to 3.0%, P: 0.005 to 0.1%, S: 0.0001 to 0.01% and further optionally comprising, by mass%, one or more of Ti: 0.005 to 0.5%, Nb: 0.005 to 0.5%, Zr: 0.005 to 0.5%, V: 0.01 to 0.5%, Ni: 0.01 to 1%, Mo: 0.1 to 3.0%, W: 0.1 to 3.0%, Cu: 0.1 to 3.0%, B: 0.0003 to 0.0100%, Al: 0.01 to 1.0%, Ca: 0.0001 to 0.003%, Mg: 0.0001 to 0.005%, Co: 0.001 to 0.5%, Sb: 0.005 to 0.3%, REM: 0.001 to 0.2%, and Ga: 0.0002 to 0.3% and a balance of Fe and unavoidable impurities, wherein an X-ray diffraction strength in the <012> orientation from a surface layer of the steel sheet to t/4 is 2 or more, wherein "t" represents the sheet thickness.
A bracket, comprising: a main body part having a fixing plate with an upper surface and a lower surface, the lower surface of the fixing plate is provided with a bonding layer, the upper surface of the fixing plate includes a first groove dividing the upper surface of the fixing plate into a first end portion and a second end portion, wherein a protruding portion is provided on the first end portion, and wherein an outside surface of the protruding portion is a smooth curved surface; and a covering part including an upper surface and a lower surface, wherein the lower surface of the covering part matches with a surface of the second end portion, and wherein the upper surface of the covering part is a smooth curved surface; which matches with the surface of the protruding portion to provide a surface which is smooth without any protrusion; characterised in that: a first projection is provided on the surface of the second end portion, the first projection having a cylindrical shape, and a top end of the first projection being provided with a ball structure having a diameter larger than that of the first projection; and the lower surface of the covering part is provided with a second groove of an elongated shape, the second groove having an opening size smaller than its inner size, and the opening of the second groove is provided with a window that matches with the first projection. a main body part having a fixing plate with an upper surface and a lower surface, the lower surface of the fixing plate is provided with a bonding layer, the upper surface of the fixing plate includes a first groove dividing the upper surface of the fixing plate into a first end portion and a second end portion, wherein a protruding portion is provided on the first end portion, and wherein an outside surface of the protruding portion is a smooth curved surface; and a covering part including an upper surface and a lower surface, wherein the lower surface of the covering part matches with a surface of the second end portion, and wherein the upper surface of the covering part is a smooth curved surface; which matches with the surface of the protruding portion to provide a surface which is smooth without any protrusion; a first projection is provided on the surface of the second end portion, the first projection having a cylindrical shape, and a top end of the first projection being provided with a ball structure having a diameter larger than that of the first projection; and the lower surface of the covering part is provided with a second groove of an elongated shape, the second groove having an opening size smaller than its inner size, and the opening of the second groove is provided with a window that matches with the first projection.
Agricultural vehicle-trailer-combination comprising a traction vehicle and a trailer, wherein the traction vehicle comprises an engine and at least one ground engagement means (18, 20, 22) for support on a ground surface, and the ground engagement means (18, 20, 22) is connected in terms of drive to the engine by means of a transmission, wherein the traction vehicle comprises a service brake and the traction vehicle is able to be braked by means of the engine, i.e. an engine brake, and/or by means of the service brake, and the traction vehicle comprises a sensor (100, 104) and a control unit and by means of the sensor (100, 104) and the control unit (102, 106) a slip on the ground engagement means (18, 20, 22) may be sensed and determined and the slip gradient ∇ S may be determined with the slip, wherein the trailer comprises a trailer brake and the trailer brake is adjustable by the control unit (102, 106), characterized in that the trailer brake is adjustable by means of the control unit (102, 106) when the engine brake and/or service brake of the traction vehicle are actuated or during the actuation thereof, such that the trailer is braked by means of the trailer brake as a function of the slip and the slip gradient ( ∇S) when the slip reaches or exceeds a predeterminable slip braking value ( S threshold 1) and the slip gradient ( ∇ S) reaches a predeterminable slip gradient braking interval ( ∇ S braking).
A method of producing a liquid dairy blend comprising the steps of: a. mixing a milk-protein composition with a whey protein concentrate to achieve a total whey-protein:casein ratio of 0.35-0.43; b. optionally adding water, fat, oil and/or an emulsifier to the mixture of step a); c. adjusting the pH of the mixture of step a) or b) to 5.90-6.10 with an organic acid; d. homogenizing the mixture of step c); and e. heating the mixture of step d) to a temperature from 86°C - 97°C for a period of from 1.0 to 3 minutes. a. mixing a milk-protein composition with a whey protein concentrate to achieve a total whey-protein:casein ratio of 0.35-0.43; b. optionally adding water, fat, oil and/or an emulsifier to the mixture of step a); c. adjusting the pH of the mixture of step a) or b) to 5.90-6.10 with an organic acid; d. homogenizing the mixture of step c); and e. heating the mixture of step d) to a temperature from 86°C - 97°C for a period of from 1.0 to 3 minutes.