mhurhangee/ep-ind-claims huggingface dataset:
A battery pack comprising: a first antenna for receiving electric power from a power supply source located outside by coupling with a first resonant magnetic field generated by the power supply source; and at least one secondary battery charged by the electric power received by the first antenna; the battery pack characterized by further comprising: an oscillator for producing radio-frequency power by DC power discharged from the secondary battery; wherein a second antenna for generating a second resonant magnetic field by the radio-frequency power and magnetically coupling with a third antenna located outside; the first antenna is formed by a first resonant circuit including a first inductor and a first capacitor; the second antenna is formed by a second resonant circuit including a second inductor and a second capacitor; a primary surface of the first inductor is parallel to a first plane; and a primary surface of the second inductor is parallel to a second plane that intersects with the first plane at an angle of 45° or more. a first antenna for receiving electric power from a power supply source located outside by coupling with a first resonant magnetic field generated by the power supply source; and at least one secondary battery charged by the electric power received by the first antenna; the battery pack characterized by further comprising: an oscillator for producing radio-frequency power by DC power discharged from the secondary battery; wherein a second antenna for generating a second resonant magnetic field by the radio-frequency power and magnetically coupling with a third antenna located outside; the first antenna is formed by a first resonant circuit including a first inductor and a first capacitor; the second antenna is formed by a second resonant circuit including a second inductor and a second capacitor; a primary surface of the first inductor is parallel to a first plane; and a primary surface of the second inductor is parallel to a second plane that intersects with the first plane at an angle of 45° or more. an oscillator for producing radio-frequency power by DC power discharged from the secondary battery; wherein a second antenna for generating a second resonant magnetic field by the radio-frequency power and magnetically coupling with a third antenna located outside; the first antenna is formed by a first resonant circuit including a first inductor and a first capacitor; the second antenna is formed by a second resonant circuit including a second inductor and a second capacitor; a primary surface of the first inductor is parallel to a first plane; and a primary surface of the second inductor is parallel to a second plane that intersects with the first plane at an angle of 45° or more.
A neutralization cell for increasing a pH level of a chlorine solution, the neutralization cell comprising: a neutralization anode; a neutralization cathode, wherein the neutralization anode and the neutralization cathode are positioned away from walls of the neutralization cell to divide the neutralization cell into a middle area between the neutralization anode and the neutralization cathode, an anode area on a side of the neutralization anode furthest from the neutralization cathode, and a cathode area on a side of the neutralization cathode furthest from the neutralization anode; an inlet configured to direct a chlorine solution into the neutralization cell by directing an incoming flow of the chlorine solution into the anode area; and an outlet configured to direct the chlorine solution out of the neutralization cell by directing an outgoing flow of the chlorine solution from the cathode area, wherein the neutralization anode is non-solid and configured to permit the chlorine solution to flow through the neutralization anode from the anode area into the middle area and wherein the neutralization cathode is non-solid and configured to permit the chlorine solution to flow through the neutralization cathode from the middle area into the cathode area. a neutralization anode; a neutralization cathode, wherein the neutralization anode and the neutralization cathode are positioned away from walls of the neutralization cell to divide the neutralization cell into a middle area between the neutralization anode and the neutralization cathode, an anode area on a side of the neutralization anode furthest from the neutralization cathode, and a cathode area on a side of the neutralization cathode furthest from the neutralization anode; an inlet configured to direct a chlorine solution into the neutralization cell by directing an incoming flow of the chlorine solution into the anode area; and an outlet configured to direct the chlorine solution out of the neutralization cell by directing an outgoing flow of the chlorine solution from the cathode area, wherein the neutralization anode is non-solid and configured to permit the chlorine solution to flow through the neutralization anode from the anode area into the middle area and wherein the neutralization cathode is non-solid and configured to permit the chlorine solution to flow through the neutralization cathode from the middle area into the cathode area.
An apparatus comprising: a jack body; a lifting arm pivotally coupled to the jack body; a lower mount pivotally coupled to a proximal end of the lifting arm; an upper mount attached to the jack body; a bladder disposed between the lower mount and the upper mount; a mounting block pivotally coupled to a distal end of the lifting arm; and a plurality of wheels attached to the jack body; wherein, with the plurality of wheels resting on a horizontal surface: the upper mount is positioned higher than the lower mount; inflating the bladder applies downward pressure on the lower mount, causing the lower mount to move downward; deflating the bladder while it is at least partially inflated removes the downward pressure on the lower mount, allowing the lower mount to move upward; downward movement of the lower mount lowers the proximal end of the lifting arm and raises the distal end of the lifting arm; upward movement of the lower mount raises the proximal end of the lifting arm and lowers the distal end of the lifting arm; and the apparatus is adapted to maintain the mounting block at a substantially constant orientation relative to the jack body while the bladder is inflated and deflated. a jack body; a lifting arm pivotally coupled to the jack body; a lower mount pivotally coupled to a proximal end of the lifting arm; an upper mount attached to the jack body; a bladder disposed between the lower mount and the upper mount; a mounting block pivotally coupled to a distal end of the lifting arm; and a plurality of wheels attached to the jack body; wherein, with the plurality of wheels resting on a horizontal surface: the upper mount is positioned higher than the lower mount; inflating the bladder applies downward pressure on the lower mount, causing the lower mount to move downward; deflating the bladder while it is at least partially inflated removes the downward pressure on the lower mount, allowing the lower mount to move upward; downward movement of the lower mount lowers the proximal end of the lifting arm and raises the distal end of the lifting arm; upward movement of the lower mount raises the proximal end of the lifting arm and lowers the distal end of the lifting arm; and the apparatus is adapted to maintain the mounting block at a substantially constant orientation relative to the jack body while the bladder is inflated and deflated. the upper mount is positioned higher than the lower mount; inflating the bladder applies downward pressure on the lower mount, causing the lower mount to move downward; deflating the bladder while it is at least partially inflated removes the downward pressure on the lower mount, allowing the lower mount to move upward; downward movement of the lower mount lowers the proximal end of the lifting arm and raises the distal end of the lifting arm; upward movement of the lower mount raises the proximal end of the lifting arm and lowers the distal end of the lifting arm; and the apparatus is adapted to maintain the mounting block at a substantially constant orientation relative to the jack body while the bladder is inflated and deflated.
A method of identifying devices that are allowed to join a mesh network, the method comprising: determining, by a commissioning device for the mesh network, steering data for the mesh network, the steering data comprising an indication of a device identifier, which is represented as a set of values in a Bloom filter, and a length of the device identifier, the device identifier being associated with a device that is allowed to join the mesh network and the length of the device identifier usable to determine the set of values, for the indication of the device identifier, wherein the length of the device identifier is used for determining the steering data; and propagating, by the commissioning device, the steering data from the commissioning device to one or more routers in the mesh network, said propagating enabling the one or more routers to transmit the steering data in a beacon message, the steering data enabling the device associated with the device identifier to compare the set of values in the Bloom filter to a second set of values determined at the device to identify that the device is allowed to join the mesh network, and wherein the beacon message includes an S-bit, the S-bit being set by the commissioning device and identifying the length of the device identifier used for determining the steering data. determining, by a commissioning device for the mesh network, steering data for the mesh network, the steering data comprising an indication of a device identifier, which is represented as a set of values in a Bloom filter, and a length of the device identifier, the device identifier being associated with a device that is allowed to join the mesh network and the length of the device identifier usable to determine the set of values, for the indication of the device identifier, wherein the length of the device identifier is used for determining the steering data; and propagating, by the commissioning device, the steering data from the commissioning device to one or more routers in the mesh network, said propagating enabling the one or more routers to transmit the steering data in a beacon message, the steering data enabling the device associated with the device identifier to compare the set of values in the Bloom filter to a second set of values determined at the device to identify that the device is allowed to join the mesh network, and wherein the beacon message includes an S-bit, the S-bit being set by the commissioning device and identifying the length of the device identifier used for determining the steering data.
An encapsulated particle comprising: A a core particle comprising a fertilizer selected from the group of nitrogen, phosphate, potash, sulfur, and combinations thereof, a herbicide, an insecticide or a fungicide; B a polyurethane layer disposed about said core particle and comprising the reaction product of; (i) an isocyanate component wherein said isocyanate component comprises an aromatic isocyanate component, and (ii) a polyol derived from an aromatic amine-based initiator, wherein said polyol has an OH number of from 350-500. and wherein said aromatic amine- based initiator comprises the formula: wherein R 1 comprises one of an alkyl group, an amine group, and a hydrogen; and wherein each of R 2 -R 6 independently comprise one of an amine group and a hydrogen; so long as at least one of R 1 -R 6 is an amine group. A a core particle comprising a fertilizer selected from the group of nitrogen, phosphate, potash, sulfur, and combinations thereof, a herbicide, an insecticide or a fungicide; B a polyurethane layer disposed about said core particle and comprising the reaction product of; (i) an isocyanate component wherein said isocyanate component comprises an aromatic isocyanate component, and (ii) a polyol derived from an aromatic amine-based initiator, wherein said polyol has an OH number of from 350-500. (i) an isocyanate component wherein said isocyanate component comprises an aromatic isocyanate component, and (ii) a polyol derived from an aromatic amine-based initiator, wherein said polyol has an OH number of from 350-500. wherein R 1 comprises one of an alkyl group, an amine group, and a hydrogen; and wherein each of R 2 -R 6 independently comprise one of an amine group and a hydrogen; so long as at least one of R 1 -R 6 is an amine group.
A mechanical ventilator for automatedly evaluating a patient for positive end expiratory pressure (PEEP) therapy, comprising: a gas monitoring module and a central processing unit which is configured to execute the following steps: providing respiratory assistance to the patient with the mechanical ventilator; providing PEEP therapy at a first PEEP to the patient with the mechanical ventilator; measuring a first end expiratory lung volume (EELV) of the patient at the first PEEP with the gas monitoring module associated connected to the mechanical ventilator; providing PEEP therapy at a second PEEP to the patient with the mechanical ventilator; measuring a second EELV of the patient at the second PEEP with the gas monitoring module; calculating a difference between the first EELV and the second EELV with the central processing unit; calculating a recruitment index with the central processing unit, based upon a value indicative of the patient's response to PEEP therapy based upon the difference between the first EELV and the second EELV and a second parameter which is the patient functional residual capacity; and evaluating the patient for PEEP therapy based upon the recruitment index. providing respiratory assistance to the patient with the mechanical ventilator; providing PEEP therapy at a first PEEP to the patient with the mechanical ventilator; measuring a first end expiratory lung volume (EELV) of the patient at the first PEEP with the gas monitoring module associated connected to the mechanical ventilator; providing PEEP therapy at a second PEEP to the patient with the mechanical ventilator; measuring a second EELV of the patient at the second PEEP with the gas monitoring module; calculating a difference between the first EELV and the second EELV with the central processing unit; calculating a recruitment index with the central processing unit, based upon a value indicative of the patient's response to PEEP therapy based upon the difference between the first EELV and the second EELV and a second parameter which is the patient functional residual capacity; and evaluating the patient for PEEP therapy based upon the recruitment index.
A method of screening for a candidate compound for use in inhibiting the binding between DEP domain containing 1 (DEPDC1) and zinc finger protein 224, said method comprising the steps of: (a) contacting a DEPDC1 polypeptide or a polypeptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NO: 28, 54 and 55 with a ZNF224 polypeptide, in the presence of a test compound; (b) detecting the binding between the polypeptides; and (c) selecting the test compound that inhibits the binding between these polypeptides. (a) contacting a DEPDC1 polypeptide or a polypeptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NO: 28, 54 and 55 with a ZNF224 polypeptide, in the presence of a test compound; (b) detecting the binding between the polypeptides; and (c) selecting the test compound that inhibits the binding between these polypeptides.
An adapter, comprising: a power converting unit, configured to convert an input alternating current to obtain an output voltage and an output current of the adapter, wherein the output current of the adapter is a current of a first pulsating waveform; a sample and hold unit, connected to the power converting unit, and configured to sample the current of the first pulsating waveform when the sample and hold unit is in a sample state and hold a peak value of the current of the first pulsating waveform when the sample and hold unit is in a hold state; and a current acquisition and control unit, connected to the sample and hold unit, and configured to determine whether the sample and hold unit is in the hold state and acquire the peak value of the current of the first pulsating waveform held by the sample and hold unit when the sample and hold unit is in the hold state, the adapter further comprising: a voltage adjusting unit, connected to the power converting unit and configured to detect and adjust the output voltage of the adapter; characterized in that the current acquisition and control unit is connected to the voltage adjusting unit and configured to adjust the peak value of the current of the first pulsating waveform via the voltage adjusting unit by filtering a portion of the first pulsating waveform that exceeds a certain threshold value. a power converting unit, configured to convert an input alternating current to obtain an output voltage and an output current of the adapter, wherein the output current of the adapter is a current of a first pulsating waveform; a sample and hold unit, connected to the power converting unit, and configured to sample the current of the first pulsating waveform when the sample and hold unit is in a sample state and hold a peak value of the current of the first pulsating waveform when the sample and hold unit is in a hold state; and a current acquisition and control unit, connected to the sample and hold unit, and configured to determine whether the sample and hold unit is in the hold state and acquire the peak value of the current of the first pulsating waveform held by the sample and hold unit when the sample and hold unit is in the hold state, the adapter further comprising: a voltage adjusting unit, connected to the power converting unit and configured to detect and adjust the output voltage of the adapter; characterized in that the current acquisition and control unit is connected to the voltage adjusting unit and configured to adjust the peak value of the current of the first pulsating waveform via the voltage adjusting unit by filtering a portion of the first pulsating waveform that exceeds a certain threshold value. a voltage adjusting unit, connected to the power converting unit and configured to detect and adjust the output voltage of the adapter; characterized in that the current acquisition and control unit is connected to the voltage adjusting unit and configured to adjust the peak value of the current of the first pulsating waveform via the voltage adjusting unit by filtering a portion of the first pulsating waveform that exceeds a certain threshold value.
An image forming method, comprising: pre-scanning a page to be scanned; analyzing color components of the pre-scanned image with respect to a preset condition to determine candidate colors corresponding the preset condition from among the color components; displaying the determined candidate colors; receiving a user input to select a dropout color among the displayed candidate colors; and eliminating the selected dropout color from a main-scanned image if main scan of the page to be scanned is performed wherein the preset condition is a condition that is set to determine the color components of lines of a form that constitutes the pre-scanned image as the candidate colors; and wherein the step of analyzing comprises: searching for the lines having a length that is equal to or larger than a preset length, among the respective components of the form that constitutes the pre-scanned image; detecting color components of pixels that constitute the searched lines; and determining the detected color components as the candidate colors. pre-scanning a page to be scanned; analyzing color components of the pre-scanned image with respect to a preset condition to determine candidate colors corresponding the preset condition from among the color components; displaying the determined candidate colors; receiving a user input to select a dropout color among the displayed candidate colors; and eliminating the selected dropout color from a main-scanned image if main scan of the page to be scanned is performed wherein the preset condition is a condition that is set to determine the color components of lines of a form that constitutes the pre-scanned image as the candidate colors; and wherein the step of analyzing comprises: searching for the lines having a length that is equal to or larger than a preset length, among the respective components of the form that constitutes the pre-scanned image; detecting color components of pixels that constitute the searched lines; and determining the detected color components as the candidate colors. searching for the lines having a length that is equal to or larger than a preset length, among the respective components of the form that constitutes the pre-scanned image; detecting color components of pixels that constitute the searched lines; and determining the detected color components as the candidate colors.
Aqueous, surfactant-containing cosmetic cleansing preparation comprising one or more A-MA polymer(s), obtainable by radical emulsion polymerization of at least one acidic vinyl monomer or salt thereof, at least one nonionic vinyl monomer, particularly preferably a hydrophobic nonionic vinyl monomer, at least one monomer comprising an unsaturated end group and a polyoxyalkylene moiety, at least one crosslinking monomer, optionally a protective colloid, characterized in that the monomers are added over a metering time of 40 minutes, particularly preferably 30 minutes, wherein at least one further polymer is present and wherein solid particles are additionally present, characterized in that the preparation is transparent. at least one acidic vinyl monomer or salt thereof, at least one nonionic vinyl monomer, particularly preferably a hydrophobic nonionic vinyl monomer, at least one monomer comprising an unsaturated end group and a polyoxyalkylene moiety, at least one crosslinking monomer, optionally a protective colloid, characterized in that the monomers are added over a metering time of 40 minutes, particularly preferably 30 minutes,
Vibration therapy device, including: - a lying surface, arranged along a longitudinal axis, for a human body, which lying surface comprises a plurality of support surfaces (14, 16) and is configured at least in part as an oscillating support, - a trunk module which supports a trunk support surface, - a leg module which supports a lower leg support surface, and - an oscillation-generating mechanism, characterised in that the oscillation-generating mechanism generates linear lateral oscillations transversely to the longitudinal axis in the plane of the lying surface and is positively coupled with the trunk support surface and/or the lower leg support surface for transmitting the lateral oscillations, wherein at least one non-driven support surface (14, 16) is configured to be able to freely oscillate laterally. - a lying surface, arranged along a longitudinal axis, for a human body, which lying surface comprises a plurality of support surfaces (14, 16) and is configured at least in part as an oscillating support, - a trunk module which supports a trunk support surface, - a leg module which supports a lower leg support surface, and - an oscillation-generating mechanism,