mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling an operative parameter of a harvesting platform of an agricultural harvesting machine , the harvesting platform having a frame , a knife bar and a reel , the system comprising: a sensor adapted to provide downed crop information indicative of an orientation of downed crop in a field to be harvested; and an electronic control unit connected to the sensor , characterized in that the electronic control unit is adapted to control at least one of vertical position, horizontal position and speed of the reel and/or a cutter bar table position corresponding to the horizontal position of the knife bar with respect to the frame of the platform based upon the downed crop information. a sensor adapted to provide downed crop information indicative of an orientation of downed crop in a field to be harvested; and an electronic control unit connected to the sensor , characterized in that the electronic control unit is adapted to control at least one of vertical position, horizontal position and speed of the reel and/or a cutter bar table position corresponding to the horizontal position of the knife bar with respect to the frame of the platform based upon the downed crop information.
A method of laundering fabrics comprising the steps of: (a) calculating a final amount of water to be added to a final wash bath; (b) calculating the amount of energy needed to heat this final amount of water to a desired final temperature; (c) contacting an amount of water that is less than the final amount water with fabric to form an intermediate wash bath, wherein a detergent composition is contacted to the fabric during the formation of the intermediate wash bath, or prior to the formation of the intermediate wash bath; (d) heating the water that contacts the fabric during step (c) with the energy calculated in step (b) such that the intermediate wash bath has a temperature above the desired final temperature; (e) washing the fabric in the intermediate wash bath for at least 3 minutes, and optionally a maximum of 10 minutes; (f) contacting the remaining amount of water to the intermediate wash bath to form the final wash bath having the desired final temperature; (g) washing the fabric in the final wash bath for at least 5 minutes; and (h) rinsing the fabric. (a) calculating a final amount of water to be added to a final wash bath; (b) calculating the amount of energy needed to heat this final amount of water to a desired final temperature; (c) contacting an amount of water that is less than the final amount water with fabric to form an intermediate wash bath, wherein a detergent composition is contacted to the fabric during the formation of the intermediate wash bath, or prior to the formation of the intermediate wash bath; (d) heating the water that contacts the fabric during step (c) with the energy calculated in step (b) such that the intermediate wash bath has a temperature above the desired final temperature; (e) washing the fabric in the intermediate wash bath for at least 3 minutes, and optionally a maximum of 10 minutes; (f) contacting the remaining amount of water to the intermediate wash bath to form the final wash bath having the desired final temperature; (g) washing the fabric in the final wash bath for at least 5 minutes; and (h) rinsing the fabric.
A pellicle , comprising: a pellicle frame in a frame shape as an element, the pellicle frame having an upper end face to arrange a pellicle film thereon and a lower end face to face a photomask , and a notched part being provided from an outer side face toward an inner side face of the lower end face, wherein the notched part is formed from the outer side face up to the inner side face, and wherein the height of the notched part is 30% or less of the thickness of the pellicle frame, and wherein the notched part is a ventilation part. a pellicle frame in a frame shape as an element, the pellicle frame having an upper end face to arrange a pellicle film thereon and a lower end face to face a photomask , and a notched part being provided from an outer side face toward an inner side face of the lower end face, wherein the notched part is formed from the outer side face up to the inner side face, and wherein the height of the notched part is 30% or less of the thickness of the pellicle frame, and wherein the notched part is a ventilation part.
A safety lock for a stirrup , wherein the safety lock during use is mounted on a stirrup and fastened by a stirrup strap to a saddle, the safety lock securing the stirrup to the stirrup strap while riding such that the stirrup is loosened and falls off the stirrup strap if a rider falls off the horse and hangs by the stirrup , wherein the safety lock is designed such that the stirrup strap is suspended on a bearing/sliding face on a horizontal support beam within a horizontal pin disposed at one end of the support beam , and which safety lock comprises a rocker arm hinged to the safety lock disposed below the support beam which stirrup strap is supported by two support arms , one at the outer side and a shorter one at the inner side , both disposed above the support beam , the safety lock also comprises a support beam simultaneously acting as a first protection for the rocker arm which safety lock comprises a second protector for the rocker arm , and a stopper for the rocker arm .
A system for improving the precise and accurate temperature control of a water heating consumer appliance comprising: a reservoir for holding a liquid; at least one heating element located to heat said liquid; at least one temperature sensor that generates a signal representative of a sensed temperature located to sense the temperature of said liquid; at least one control component; said at least one control component connected to said at least one temperature sensor to receive said signal; means to indicate to said at least one control component that said signal represents a reference signal; and said at least one control component being capable of comparing future signals from said at least one temperature sensor with said reference signal, characterized in that the control component is adapted to, after a calibration cycle, cause water to be transferred from the reservoir, through a basket for holding coffee grounds, and into a vessel for holding brewed coffee. a reservoir for holding a liquid; at least one heating element located to heat said liquid; at least one temperature sensor that generates a signal representative of a sensed temperature located to sense the temperature of said liquid; at least one control component; said at least one control component connected to said at least one temperature sensor to receive said signal; means to indicate to said at least one control component that said signal represents a reference signal; and said at least one control component being capable of comparing future signals from said at least one temperature sensor with said reference signal, characterized in that the control component is adapted to, after a calibration cycle, cause water to be transferred from the reservoir, through a basket for holding coffee grounds, and into a vessel for holding brewed coffee.
A method for making wet laid non wovens, in which method an aqueous suspension comprising fibers is deposited onto a wire and in order for a sheet of a non woven web to be formed is dewatered by suction boxes below the wire, said non woven web, prior to being capable of being wound-up, being removed from the wire and being guided to at least one subsequent treatment units , and transferring the non woven web from the wire to the at least one subsequent treatment unit, and/or transferring the non woven web at junction points between treatment units in the case of a production start-up and/or upon a production interruption with the aid of a web feeding , and wherein a hydroentanglement installation is provided as at least one treatment unit, characterized in that web feeding is performed by way of a transfer that in each case is temporarily closed and is part of a free transfer between the wire and the at least one subsequent treatment unit and/or of a free transfer at a junction between treatment units, and that the transfer that in each case is temporarily closed is generated by air flows which by blowing lifts an end feeding strip as part of the running non woven web, by generating negative pressure attach said end feeding strip to a transportation path installation , and by suctioning pick up said end feeding strip at the respective subsequent treatment unit.
An article for a replaceable printer component, comprising an integrated circuit device that includes: a device controller ; a conductor to supply power to the device controller and to carry a signal to and from the device controller ; and a sensor operatively connected to the device controller to sense a voltage and/or a frequency on the conductor ; wherein the device controller is to send an indication of a sensed voltage and/or a sensed frequency to a printer controller , and characterized in that the indication includes the sensed voltage and/or the sensed frequency. a device controller ; a conductor to supply power to the device controller and to carry a signal to and from the device controller ; and a sensor operatively connected to the device controller to sense a voltage and/or a frequency on the conductor ; wherein the device controller is to send an indication of a sensed voltage and/or a sensed frequency to a printer controller , and characterized in that the indication includes the sensed voltage and/or the sensed frequency.
A non-transitory computer-accessible medium having stored thereon computer-executable instructions for determining a location of at least one radioactive seed within a body, wherein, when a computer arrangement executes the instructions, the computer arrangement is configured to perform procedures comprising: receiving first imaging information of the at least one radioactive seed within the body based on an ultrasound imaging modality; receiving second imaging information of the at least one radioactive seed within the body based on a computed tomography imaging (CT) modality; matching, in the second imaging information, an ultrasound probe having known coordinates that is used to generate the first imaging information; and determining the location of the at least one radioactive seed within the body based on the first imaging information, the second imaging information, and the known coordinates of the ultrasound probe . receiving first imaging information of the at least one radioactive seed within the body based on an ultrasound imaging modality; receiving second imaging information of the at least one radioactive seed within the body based on a computed tomography imaging (CT) modality; matching, in the second imaging information, an ultrasound probe having known coordinates that is used to generate the first imaging information; and determining the location of the at least one radioactive seed within the body based on the first imaging information, the second imaging information, and the known coordinates of the ultrasound probe .
A method of preparing a modified conjugated diene-based polymer, the method comprising: preparing an active polymer with an organic metal bonded thereto by polymerizing a conjugated diene-based monomer in a hydrocarbon solvent in the presence of an organometallic compound (S1), mixing the active polymer prepared according to process S1 with a modifier (S2), and reacting or coupling the active polymer and the modifier mixed in process S2 (S3), wherein the mixing of process S2 is performed at a Reynolds number of 20 or less for 1 minute or more to maintain a laminar flow behaviour thereof, wherein the Reynolds number (N Re ) is calculated by Equation 1 below when the mixing of process S2 is performed in a transfer part: Reynolds number N Re = ρ ⁢ vd μ wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3 , the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more. preparing an active polymer with an organic metal bonded thereto by polymerizing a conjugated diene-based monomer in a hydrocarbon solvent in the presence of an organometallic compound (S1), mixing the active polymer prepared according to process S1 with a modifier (S2), and reacting or coupling the active polymer and the modifier mixed in process S2 (S3), wherein the mixing of process S2 is performed at a Reynolds number of 20 or less for 1 minute or more to maintain a laminar flow behaviour thereof, wherein the Reynolds number (N Re ) is calculated by Equation 1 below when the mixing of process S2 is performed in a transfer part: Reynolds number N Re = ρ ⁢ vd μ wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3 , the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more. wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3 , the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more.
A takeout jig comprising: - a support part which is configured to be pulled up to take out a silicon rod including one or more straight barrel portions and which is configured to support the silicon rod by clamping one or more end portions of the silicon rod; - one or more first cords which are connected to the support part, which are equal in number to or greater in number than the silicon rod, and which are configured to pull up the support part; and - one or more second cords which are connected to the one or more first cords and which are configured to hold the silicon rod by wrapping around the silicon rod. - a support part which is configured to be pulled up to take out a silicon rod including one or more straight barrel portions and which is configured to support the silicon rod by clamping one or more end portions of the silicon rod; - one or more first cords which are connected to the support part, which are equal in number to or greater in number than the silicon rod, and which are configured to pull up the support part; and - one or more second cords which are connected to the one or more first cords and which are configured to hold the silicon rod by wrapping around the silicon rod.
A data transmitter (100_1) comprising: means for generating transmission data packets, configured to split a first data packet into at least three transmission data packets (104_1-104_n), wherein each of the at least three transmission data packets (104_1-104_n) is shorter than the first data packet , the means for generating data packets being configured to channel-encode the at least three transmission data packets (104_1-104_n) such that only a portion of the transmission data packets (104_1-104_n) is required for decoding the first data packet ; means for transmitting data packets, configured to transmit the at least three transmission data packets (104 _ 1-104_n) in a frequency channel via a communications channel with a time gap ; means for monitoring the frequency channel, configured to recognize an interference or transmission of a further data transmitter (100_2) in the frequency channel; wherein the means for transmitting data packets is configured not to transmit, transmit only partly or at a later time via the communications channel a transmission data packet, waiting for transmission, of the at least three transmission data packets (104_1-104_n) if an interference or transmission from a further data transmitter (100_2) is recognized by the means for monitoring the frequency channel at the time of transmitting the transmission data packet. means for generating transmission data packets, configured to split a first data packet into at least three transmission data packets (104_1-104_n), wherein each of the at least three transmission data packets (104_1-104_n) is shorter than the first data packet , the means for generating data packets being configured to channel-encode the at least three transmission data packets (104_1-104_n) such that only a portion of the transmission data packets (104_1-104_n) is required for decoding the first data packet ; means for transmitting data packets, configured to transmit the at least three transmission data packets (104 _ 1-104_n) in a frequency channel via a communications channel with a time gap ; means for monitoring the frequency channel, configured to recognize an interference or transmission of a further data transmitter (100_2) in the frequency channel; wherein the means for transmitting data packets is configured not to transmit, transmit only partly or at a later time via the communications channel a transmission data packet, waiting for transmission, of the at least three transmission data packets (104_1-104_n) if an interference or transmission from a further data transmitter (100_2) is recognized by the means for monitoring the frequency channel at the time of transmitting the transmission data packet.
An automated bi-stable valve system comprising: a bi-stable valve mechanism comprising a plurality of bi-stable valves , wherein each of the plurality of bi-stable valves is configured to switch between a valve closed state and a valve open state ; and a control system coupled to the bi-stable valve mechanism and configured to operably control the bi-stable valve mechanism , the control system comprising: (i) at least one traversable bridge apparatus ; and (ii) a valve switch mechanism attached to the at least one traversable bridge apparatus , and movable, via the at least one traversable bridge apparatus , over the plurality of bi-stable valves , wherein the valve switch mechanism : is configured to switch one or more of the plurality of bi-stable valves between the valve closed state and the valve open state ; and comprises a plurality of control actuators , wherein the plurality of bi-stable valves comprises a plurality of rows of bi-stable valves , and wherein each control actuator of the plurality of control actuators is configured to actuate one or more different rows of the plurality of rows of the plurality of bi-stable valves . a bi-stable valve mechanism comprising a plurality of bi-stable valves , wherein each of the plurality of bi-stable valves is configured to switch between a valve closed state and a valve open state ; and a control system coupled to the bi-stable valve mechanism and configured to operably control the bi-stable valve mechanism , the control system comprising: (i) at least one traversable bridge apparatus ; and (ii) a valve switch mechanism attached to the at least one traversable bridge apparatus , and movable, via the at least one traversable bridge apparatus , over the plurality of bi-stable valves , (i) at least one traversable bridge apparatus ; and (ii) a valve switch mechanism attached to the at least one traversable bridge apparatus , and movable, via the at least one traversable bridge apparatus , over the plurality of bi-stable valves , wherein the valve switch mechanism : is configured to switch one or more of the plurality of bi-stable valves between the valve closed state and the valve open state ; and comprises a plurality of control actuators , wherein the plurality of bi-stable valves comprises a plurality of rows of bi-stable valves , and wherein each control actuator of the plurality of control actuators is configured to actuate one or more different rows of the plurality of rows of the plurality of bi-stable valves . is configured to switch one or more of the plurality of bi-stable valves between the valve closed state and the valve open state ; and comprises a plurality of control actuators , wherein the plurality of bi-stable valves comprises a plurality of rows of bi-stable valves , and wherein each control actuator of the plurality of control actuators is configured to actuate one or more different rows of the plurality of rows of the plurality of bi-stable valves .
A method for determining the resistive state of at least one resistive change element within a resistive change element array, comprising: providing a resistive change element array, said resistive change element array comprising: a plurality of word lines; a plurality of bit lines; and a plurality of resistive change elements, wherein each resistive change element has a first terminal and a second terminal and wherein said first terminal of each resistive change element is in electrical communication with a word line and said second terminal of each resistive change element is in electrical communication with a bit line; charging all of said bit lines and all of said word lines within said resistive change element array to a preselected voltage level simultaneously; selecting one word line within said resistive change element array and allowing said selected word line to float while driving all of the other word lines and all of the bit lines to ground; observing the current through those resistive change elements that are in electrical communication with said selected word line as said selected word line discharges through those resistive change elements to measure at least one read current value for at least one resistive change element; and determining from said at least one read current value the resistive state of at least one resistive change element. providing a resistive change element array, said resistive change element array comprising: a plurality of word lines; a plurality of bit lines; and a plurality of resistive change elements, wherein each resistive change element has a first terminal and a second terminal and wherein said first terminal of each resistive change element is in electrical communication with a word line and said second terminal of each resistive change element is in electrical communication with a bit line; a plurality of word lines; a plurality of bit lines; and a plurality of resistive change elements, wherein each resistive change element has a first terminal and a second terminal and wherein said first terminal of each resistive change element is in electrical communication with a word line and said second terminal of each resistive change element is in electrical communication with a bit line; charging all of said bit lines and all of said word lines within said resistive change element array to a preselected voltage level simultaneously; selecting one word line within said resistive change element array and allowing said selected word line to float while driving all of the other word lines and all of the bit lines to ground; observing the current through those resistive change elements that are in electrical communication with said selected word line as said selected word line discharges through those resistive change elements to measure at least one read current value for at least one resistive change element; and determining from said at least one read current value the resistive state of at least one resistive change element.