mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic diagnostic chip , comprising: a number of input microfluidic channels ; a number of output microfluidic channels ; a number of interposing microfluidic channels fluidly coupled at one end to at least one input microfluidic channel and at a second end to at least one output microfluidic channel; and first and second microfluidic sensors within the number of interposing microfluidic channels; wherein the microfluidic diagnostic chip is to compare output from the first microfluidic sensor sensing a fluid comprising an analyte to output from the second microfluidic sensor sensing the fluid lacking the analyte, wherein the number of interposing microfluidic channels comprises a plurality of interposing microfluidic channels with the first and second microfluidic sensors each in a separate interposing microfluidic channel, and wherein the microfluidic diagnostic chip further comprises a thin film resistor to pump the fluid through the input, output, and interposing microfluidic channels, wherein the thin film resistor is encapsulated with a passive film and wherein the film resistor and passive film are encapsulated with a cavitation film, the microfluidic diagnostic chip further comprising: a blocking device to prevent particles of the analyte within the fluid from being sensed by the second microfluidic sensor; wherein there is a differential amplifier communicatively coupled to or within the microfluidic diagnostic chip to receive signals from the first and second microfluidic sensors and compute a differential output. a number of input microfluidic channels ; a number of output microfluidic channels ; a number of interposing microfluidic channels fluidly coupled at one end to at least one input microfluidic channel and at a second end to at least one output microfluidic channel; and first and second microfluidic sensors within the number of interposing microfluidic channels; wherein the microfluidic diagnostic chip is to compare output from the first microfluidic sensor sensing a fluid comprising an analyte to output from the second microfluidic sensor sensing the fluid lacking the analyte, wherein the number of interposing microfluidic channels comprises a plurality of interposing microfluidic channels with the first and second microfluidic sensors each in a separate interposing microfluidic channel, and wherein the microfluidic diagnostic chip further comprises a thin film resistor to pump the fluid through the input, output, and interposing microfluidic channels, wherein the thin film resistor is encapsulated with a passive film and wherein the film resistor and passive film are encapsulated with a cavitation film, the microfluidic diagnostic chip further comprising: a blocking device to prevent particles of the analyte within the fluid from being sensed by the second microfluidic sensor; wherein there is a differential amplifier communicatively coupled to or within the microfluidic diagnostic chip to receive signals from the first and second microfluidic sensors and compute a differential output.
A work vehicle comprising: right and left first wheels that are provided on one side of a vehicle body in a front-rear direction thereof; right and left second wheels that are provided on the other side of the vehicle body in the front-rear direction thereof; a work apparatus that is provided for the vehicle body; and an engine that transmits power to the right and left first wheels, the right and left second wheels and the work apparatus, wherein, in plan view of the vehicle body, the engine is supported by the vehicle body between the right first wheel and the right second wheel or between the left first wheel and the left second wheel, characterized in that in the right-left direction of the vehicle body, the width of the first wheel on the opposite side to the engine is set to be greater than the width of the first wheel on the engine side, and in the right-left direction of the vehicle body, the width of the second wheel on the opposite side to the engine is set to be greater than the width of the second wheel on the engine side . right and left first wheels that are provided on one side of a vehicle body in a front-rear direction thereof; right and left second wheels that are provided on the other side of the vehicle body in the front-rear direction thereof; a work apparatus that is provided for the vehicle body; and an engine that transmits power to the right and left first wheels, the right and left second wheels and the work apparatus, wherein, in plan view of the vehicle body, the engine is supported by the vehicle body between the right first wheel and the right second wheel or between the left first wheel and the left second wheel, characterized in that in the right-left direction of the vehicle body, the width of the first wheel on the opposite side to the engine is set to be greater than the width of the first wheel on the engine side, and in the right-left direction of the vehicle body, the width of the second wheel on the opposite side to the engine is set to be greater than the width of the second wheel on the engine side .
A neighbor relation maintaining method, the method comprising: requesting , by a first node based on frequency point information and physical cell identifier, PCI, information of a target cell, a second node to configure measurement and instruct a terminal to report automatic neighbor relation ANR-related information, wherein the ANR-related information is forward by the second node to the first node, the first node is a long term evolution, LTE, base station and connected to an Evolved Packet Core, EPC, network and the second node is a new radio, NR, base station, characterized in that , the step of the second node configuring the measurement and instructing the terminal to report the ANR-related information comprises: the second node configuring the measurement based on the frequency point information and the PCI information of the target cell and instructing the terminal to report first information of a designated cell and system broadcast information of at least one cell, wherein the first information of the designated cell comprises a public land mobile network, PLMN, list, frequency point information, PCI information, a cell identifier, a tracking area code TAC, and an RNAC. requesting , by a first node based on frequency point information and physical cell identifier, PCI, information of a target cell, a second node to configure measurement and instruct a terminal to report automatic neighbor relation ANR-related information, wherein the ANR-related information is forward by the second node to the first node, the first node is a long term evolution, LTE, base station and connected to an Evolved Packet Core, EPC, network and the second node is a new radio, NR, base station, characterized in that , the step of the second node configuring the measurement and instructing the terminal to report the ANR-related information comprises: the second node configuring the measurement based on the frequency point information and the PCI information of the target cell and instructing the terminal to report first information of a designated cell and system broadcast information of at least one cell, wherein the first information of the designated cell comprises a public land mobile network, PLMN, list, frequency point information, PCI information, a cell identifier, a tracking area code TAC, and an RNAC.
A method for assembling a control arrangement of an exhaust-gas turbocharger , the method having the following method steps: providing a turbine housing , a valve disk and a spindle , wherein the spindle and the valve disk are separate components; mounting the spindle in the turbine housing ; providing an outer lever and fastening the outer lever to the spindle ; placing the valve disk onto a valve seat of a wastegate opening; the method being characterized by further comprising the following steps: pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat ; welding the valve disk to the spindle in this state. providing a turbine housing , a valve disk and a spindle , wherein the spindle and the valve disk are separate components; mounting the spindle in the turbine housing ; providing an outer lever and fastening the outer lever to the spindle ; placing the valve disk onto a valve seat of a wastegate opening; the method being characterized by further comprising the following steps: pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat ; welding the valve disk to the spindle in this state. pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat ; welding the valve disk to the spindle in this state.
An electrode for a secondary cell, comprising a current collector and an electrode layer disposed upon a surface of the current collector, in which the electrode layer has a gas flow passage disposed on a surface and/or in an interior of the electrode layer; the gas flow passage extends in an in-plane direction of the electrode layer; and the electrode layer is made from an electrode layer forming material that contains an electrode active material and an ion conductive liquid, characterized in that the electrode layer is a non-bonded body, and a ratio of a size of the gas flow passage in the in-plane direction of the electrode layer to a thickness of the electrode layer is 0.32 or less, wherein the size of the gas flow passage in the in-plane direction corresponds to the horizontal width of the gas flow passage.
A razor cartridge comprising a housing having a front wall , a rear wall opposing the front wall , retaining structures , and a plurality of cutting elements comprising a first cutting element and a second cutting element each having a first end and a second end , said cutting elements having connecting structures at the first end and at the second end , said cutting elements being adjacent and attached to each other, wherein the connecting structures comprise a cutting element attaching portion and a cutting element receiving portion , said connecting structures allowing said cutting elements to be attached on the housing, characterized in that , the attaching portion of the first cutting element is attached to the receiving portion of the second adjacent cutting element. a housing having a front wall , a rear wall opposing the front wall , retaining structures , and a plurality of cutting elements comprising a first cutting element and a second cutting element each having a first end and a second end , said cutting elements having connecting structures at the first end and at the second end , said cutting elements being adjacent and attached to each other, wherein the connecting structures comprise a cutting element attaching portion and a cutting element receiving portion , said connecting structures allowing said cutting elements to be attached on the housing, characterized in that , the attaching portion of the first cutting element is attached to the receiving portion of the second adjacent cutting element.
A compound selected from the following compounds or a pharmaceutically acceptable salt thereof: Number in the application Formula 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 31 32 33 34 35 36 37 38 39 41 42 44 45 46 47 48 49 50 51 52 53 55 56 57 58 59 60 61 62 63 64 65 66 67 73 74 75 77 78 79 80 81 82 83 84 87 88 89 90 91 92 93 94 95 96 99 100 101 102 103 104 105 106 107 108 109 110 111 112 114 115 116 117 118 120 122 123 124 125 126 128 129 130 131 132 133 134 135 136 137 138 140 141 148 149 150 153 155 156 157 158 159 160 161 162 163 164 165 166 167 168 169 171 172 173 174 175 177 181 182 183 184 189 190 191 192 193 194 195 196 198 200 201 202 203 204 205 206 207 208 210 337 338 340 341
A computing device for controlling user access to a plurality of image sensors of an image sensor array , the computing device comprising: a camera device that includes the image sensor array, wherein the image sensor array comprises the plurality of image sensors; and a camera driver module to (i) determine a user input mode setting of the camera device selected by a user of the computing device, (ii) expose image sensor data captured from a single image sensor of the image sensor array to the user of the computing device based on the selected user input mode setting, while other image sensor data is captured from one or more other image sensors of the image sensor array, other than the exposed single image sensor, and (iii) restrict user access to the other image sensors of the image sensor array by hiding settings of the other image sensors. a camera device that includes the image sensor array, wherein the image sensor array comprises the plurality of image sensors; and a camera driver module to (i) determine a user input mode setting of the camera device selected by a user of the computing device, (ii) expose image sensor data captured from a single image sensor of the image sensor array to the user of the computing device based on the selected user input mode setting, while other image sensor data is captured from one or more other image sensors of the image sensor array, other than the exposed single image sensor, and (iii) restrict user access to the other image sensors of the image sensor array by hiding settings of the other image sensors.
An apparatus for evaluating one of a physical and a chemical property of a surface , said apparatus comprising a processing system configured to cooperate with an atomic force microscope with a scanner , a cantilever to which is attached a probe , the atomic force microscope operating in a ramp mode at a ramp frequency, wherein in the ramp mode as the scanner moves concurrently in a scanning direction, the probe traces a sinusoidal path having an amplitude and spatial frequency, wherein said spatial frequency is the ramp frequency, said processing system being configured to collect a data indicative of at least one of the physical and the chemical properties of a sample, wherein said processing system is configured to receive a probe signal indicative of a movement of the probe at a frequency that is higher than said ramp frequency; wherein said probe signal is represented as a function of time and comprises a contact portion , being the portion of the curve between the moment of contact being the time when the probe contacts the surface and the moment of release being the time at which the probe and the surface separate, and a rebound portion , being the portion of the probe signal that includes a ringing, and wherein said probe signal comprises the contact portion indicative of a cantilever deflection of said atomic force microscope caused by slow mechanical interaction of the cantilever with the surface, and the rebound portion that consists of second-order effects of motion of said cantilever , such as deflections that arise from all other sources; and wherein said processing system is further configured to obtain a parameter that is indicative at least one of the physical and the chemical property of the sample based at least in part on said rebound portion of said probe signal; wherein said processing system is configured to process second order effects of the rebound portion of the probe signal to provide information about said parameter.
A regulated charge pump circuit , comprising: a charge pump configured to supply an output voltage to a load, the charge pump including at least one charge pump stage , a charge pump driver arranged to drive the at least one charge pump stage and a controllable current source connected between a supply voltage and the charge pump driver; and an analog regulation loop including a measurement circuit arranged to output an analog regulation signal indicative of a difference between a current value of the output voltage and a target value of the output voltage and a signal path connected to the charge pump to supply the analog regulation signal to the controllable current source and wherein the analog regulation signal operates the controllable current source to modulate the electrical power that the supply voltage can provide to the charge pump driver to regulate the output voltage, wherein the regulated charge pump circuit further includes a current limiting circuit and characterised in that the current limiting circuit is a current mirror arranged to limit the current that can be supplied to the charge pump driver . a charge pump configured to supply an output voltage to a load, the charge pump including at least one charge pump stage , a charge pump driver arranged to drive the at least one charge pump stage and a controllable current source connected between a supply voltage and the charge pump driver; and an analog regulation loop including a measurement circuit arranged to output an analog regulation signal indicative of a difference between a current value of the output voltage and a target value of the output voltage and a signal path connected to the charge pump to supply the analog regulation signal to the controllable current source and wherein the analog regulation signal operates the controllable current source to modulate the electrical power that the supply voltage can provide to the charge pump driver to regulate the output voltage, wherein the regulated charge pump circuit further includes a current limiting circuit and characterised in that the current limiting circuit is a current mirror arranged to limit the current that can be supplied to the charge pump driver .
A device for collecting and processing an electromyography (EMG) signal of a human body, comprising: an electrode module configured to collect the EMG signal of the human body, the electrode module including a base structure , at least two electrodes, and a plurality of sucker structures , the at least two electrodes being arranged at intervals on a surface of the base structure , the plurality of sucker structures being arranged in an array or randomly distributed on surfaces of the at least two electrodes or on a surface of the base structure , wherein each of the sucker structures is a three-dimensional structure made of reversibly deformable material, the device being characterised in that each of the sucker structures includes a hollow part and an middle structure located in the hollow part of the sucker structure , the hollow part having an opening used to contact a human skin at an end of the sucker structure , a part of the middle structure being connected to a side wall of the sucker structure where the hollow part is located, other parts of the middle structure being fitted to, but not connected to the side wall of the sucker structure where the hollow part is located, and the middle structure dividing the hollow part of the sucker structure into a plurality of interconnected spatial areas. an electrode module configured to collect the EMG signal of the human body, the electrode module including a base structure , at least two electrodes, and a plurality of sucker structures , the at least two electrodes being arranged at intervals on a surface of the base structure , the plurality of sucker structures being arranged in an array or randomly distributed on surfaces of the at least two electrodes or on a surface of the base structure , wherein each of the sucker structures is a three-dimensional structure made of reversibly deformable material, the device being characterised in that each of the sucker structures includes a hollow part and an middle structure located in the hollow part of the sucker structure , the hollow part having an opening used to contact a human skin at an end of the sucker structure , a part of the middle structure being connected to a side wall of the sucker structure where the hollow part is located, other parts of the middle structure being fitted to, but not connected to the side wall of the sucker structure where the hollow part is located, and the middle structure dividing the hollow part of the sucker structure into a plurality of interconnected spatial areas.
A patient support apparatus having a head end and a foot end, comprising: a base frame comprising supporting elements to support the patient support apparatus on a ground; a patient support deck movable relative to the base frame ; a controller configured to control the movement of the patient support deck relative to the base frame ; the patient support apparatus further comprising, a control panel , mounted to the head end of the base frame , configured to receive an input from the foot of a healthcare professional and communicate the input to the controller , wherein said control panel is mounted such that it is positioned within the outer boundary of either the patient support deck when viewed in plan or the base frame when viewed in plan, whichever is greater; and a second control panel , mounted to the patient support deck , configured to receive an input from a healthcare professional and communicate the input to the controller , characterised in that the controller is configured to prioritise inputs received from the control panel mounted to the head end of the base frame. a base frame comprising supporting elements to support the patient support apparatus on a ground; a patient support deck movable relative to the base frame ; a controller configured to control the movement of the patient support deck relative to the base frame ; the patient support apparatus further comprising, a control panel , mounted to the head end of the base frame , configured to receive an input from the foot of a healthcare professional and communicate the input to the controller , wherein said control panel is mounted such that it is positioned within the outer boundary of either the patient support deck when viewed in plan or the base frame when viewed in plan, whichever is greater; and a second control panel , mounted to the patient support deck , configured to receive an input from a healthcare professional and communicate the input to the controller , characterised in that the controller is configured to prioritise inputs received from the control panel mounted to the head end of the base frame.
A polycarbonate, comprising a repeating unit represented by the following Chemical Formula 1: in Chemical Formula 1, Ar is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n and m are each independently an integer of 1 to 50, provided that n+m is 2 or more. Ar is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, and n and m are each independently an integer of 1 to 50, provided that n+m is 2 or more.
A method for adaptively powering down cells within a cluster, the method including: detecting when a load on a first cell falls below a first predetermined threshold, the load being based at least in part on a number of wireless devices in communication with a first radio unit serving the first cell (S100); upon detecting that the load on the first cell falls below the first predetermined threshold, powering down a transmitter of the first radio unit over a period of time to allow time for handoff of wireless devices in the first cell to a second radio unit serving an adjacent cell (S102); and increasing a power of the second radio unit serving the adjacent cell in response to the handoff of the wireless devices from the first cell. detecting when a load on a first cell falls below a first predetermined threshold, the load being based at least in part on a number of wireless devices in communication with a first radio unit serving the first cell (S100); upon detecting that the load on the first cell falls below the first predetermined threshold, powering down a transmitter of the first radio unit over a period of time to allow time for handoff of wireless devices in the first cell to a second radio unit serving an adjacent cell (S102); and increasing a power of the second radio unit serving the adjacent cell in response to the handoff of the wireless devices from the first cell.