mhurhangee/ep-ind-claims huggingface dataset:
A central detector data processing means (9, 1103) being arranged to: receive a measured property or properties indicative of a temperature, a water content and a nutrient content of a hydroponic plant growth substrate from at least one wireless detector (7, 1101) over a communications link store predefined irrigation data, defining a relationship between: plural values for temperature, water content, pH level and/or nutrient content of the plant growth substrate; and plural desired irrigation output values; process the measured properties from the at least one wireless detector to determine calculated properties of the substrate; and provide an output indicative of a desired irrigation input for the growth substrate controlling the level of water provided to the growth substrate in dependence on nutrient content of the substrate, based upon measured properties received from the at least one wireless detector (7, 1101) and the predefined irrigation data. receive a measured property or properties indicative of a temperature, a water content and a nutrient content of a hydroponic plant growth substrate from at least one wireless detector (7, 1101) over a communications link store predefined irrigation data, defining a relationship between: plural values for temperature, water content, pH level and/or nutrient content of the plant growth substrate; and plural desired irrigation output values; plural values for temperature, water content, pH level and/or nutrient content of the plant growth substrate; and plural desired irrigation output values; process the measured properties from the at least one wireless detector to determine calculated properties of the substrate; and provide an output indicative of a desired irrigation input for the growth substrate controlling the level of water provided to the growth substrate in dependence on nutrient content of the substrate, based upon measured properties received from the at least one wireless detector (7, 1101) and the predefined irrigation data.
A method of forming a FinFET, comprising: forming a strained silicon fin from an upper layer of a silicon substrate overlying an oxide layer buried therein, the strained silicon fin including a first portion having a first fin width; covering the strained silicon fin with an oxide layer; forming a gate structure that includes a polysilicon gate, on the oxide layer; depositing a top oxide layer on top of the strained silicon fin and on top of the gate structure using a directional deposition process; recessing, laterally, portions of the strained silicon fin outside the gate structure to a selected second fin width while the top oxide layer protects the top of the fins; removing the top oxide layer; after the top oxide is removed, forming raised source and drain regions by epitaxial growth from the side surfaces and top surfaces of the strained silicon fin, the raised source and drain regions being doped in-situ during the epitaxial growth; and replacing the polysilicon gate with a metal gate. forming a strained silicon fin from an upper layer of a silicon substrate overlying an oxide layer buried therein, the strained silicon fin including a first portion having a first fin width; covering the strained silicon fin with an oxide layer; forming a gate structure that includes a polysilicon gate, on the oxide layer; depositing a top oxide layer on top of the strained silicon fin and on top of the gate structure using a directional deposition process; recessing, laterally, portions of the strained silicon fin outside the gate structure to a selected second fin width while the top oxide layer protects the top of the fins; removing the top oxide layer; after the top oxide is removed, forming raised source and drain regions by epitaxial growth from the side surfaces and top surfaces of the strained silicon fin, the raised source and drain regions being doped in-situ during the epitaxial growth; and replacing the polysilicon gate with a metal gate.
An electrical assembly comprising: a housing; a power supply adapted to supply power to a load means, the power supply being located inside the housing; a sensor means adapted to detect conditions inside the housing, the conditions comprising humidity and/or temperature; and a control means (CTRL) adapted to control the power supply, the control means (CTRL) being adapted to receive information from the sensor means, and to perform at least one humidity prevention action in a predetermined humidity situation detected based on the information received from the sensor means, characterized in that the at least one humidity prevention action comprises turning on the power supply when a predetermined humidity situation occurs while the power supply is in off state. a housing; a power supply adapted to supply power to a load means, the power supply being located inside the housing; a sensor means adapted to detect conditions inside the housing, the conditions comprising humidity and/or temperature; and a control means (CTRL) adapted to control the power supply, the control means (CTRL) being adapted to receive information from the sensor means, and to perform at least one humidity prevention action in a predetermined humidity situation detected based on the information received from the sensor means, characterized in that the at least one humidity prevention action comprises turning on the power supply when a predetermined humidity situation occurs while the power supply is in off state.
An image projection apparatus for projecting an image onto a projection surface, the image projection apparatus comprising: a light source device configured to emit light; a first circuit board including an image display device configured to form an image using the light, a connector, and an electrically conductive portion (45, 46) near the connector; a retaining member made of metal; an optical illuminating unit held by the retaining member and configured to guide the light emitted from the light source device to the image display device; an optical projecting unit configured to project the image formed by the image display device onto the projection surface; a second circuit board configured to be electrically connected to the connector of the first circuit board; a metal plate fixed and electrically connected to the retaining member; and an elastic metal member (73, 74) arranged on the metal plate, wherein the first circuit board is fixed to the retaining member, the elastic metal member (73, 74) is in contact with the electrically conductive portion (45, 46) of the first circuit board, the second circuit board is fixed and electrically connected to the metal plate, and the retaining member has the largest capacitance of the optical illuminating unit. a light source device configured to emit light; a first circuit board including an image display device configured to form an image using the light, a connector, and an electrically conductive portion (45, 46) near the connector; a retaining member made of metal; an optical illuminating unit held by the retaining member and configured to guide the light emitted from the light source device to the image display device; an optical projecting unit configured to project the image formed by the image display device onto the projection surface; a second circuit board configured to be electrically connected to the connector of the first circuit board; a metal plate fixed and electrically connected to the retaining member; and an elastic metal member (73, 74) arranged on the metal plate, wherein the first circuit board is fixed to the retaining member, the elastic metal member (73, 74) is in contact with the electrically conductive portion (45, 46) of the first circuit board, the second circuit board is fixed and electrically connected to the metal plate, and the retaining member has the largest capacitance of the optical illuminating unit.
A process for the purification of agarose from aqueous extracts of Gracilaria and/or Gelidiella species of seaweed using surface active agents selected from non-ionic surfactants octyl phenol ethoxylate and nonyl phenol ethoxylate, the said process comprising the steps of: a. centrifuging the alkali-treated hot seaweed extractive (70-8 0°C) at 10000 -14000 rpm for 5-15 minutes; b. mixing the hot seaweed extractive as obtained in step (a) with 2-5% surface active agents at a temperature in the range 60-100°C under continuous stirring; c. allowing the contents as obtained in step (b) to stand for 1-10 hours at a temperature in the range of 25-35 °C to precipitate out solid mass of agarose; d. decanting the supernatant liquid and washing the said mass with water to remove residual surface active agents in the solid; e. redissolving the wet mass obtained in step (d) in minimum quantity of water in the range of 7 to 10% w/w agarose product and treating with minimum quantity of iso-propanol wherein agarose sol to iso-propanol ratio being 1:0.5 to 1:1.5 w/w to precipitate out the agarose; f. isolating the solid product and drying in a suitable drier to obtain agarose powder having mesh size in the range of 200 to 300. a. centrifuging the alkali-treated hot seaweed extractive (70-8 0°C) at 10000 -14000 rpm for 5-15 minutes; b. mixing the hot seaweed extractive as obtained in step (a) with 2-5% surface active agents at a temperature in the range 60-100°C under continuous stirring; c. allowing the contents as obtained in step (b) to stand for 1-10 hours at a temperature in the range of 25-35 °C to precipitate out solid mass of agarose; d. decanting the supernatant liquid and washing the said mass with water to remove residual surface active agents in the solid; e. redissolving the wet mass obtained in step (d) in minimum quantity of water in the range of 7 to 10% w/w agarose product and treating with minimum quantity of iso-propanol wherein agarose sol to iso-propanol ratio being 1:0.5 to 1:1.5 w/w to precipitate out the agarose; f. isolating the solid product and drying in a suitable drier to obtain agarose powder having mesh size in the range of 200 to 300.
A thermal inkjet printhead stack with an amorphous thin metal resistor, comprising: an insulated substrate (110, 120); a resistor applied to the insulated substrate (110, 120), the resistor comprising an amorphous thin metal film of: 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film. an insulated substrate (110, 120); a resistor applied to the insulated substrate (110, 120), the resistor comprising an amorphous thin metal film of: 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film. 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film.
A handheld electronic device comprising a camera component and a retaining member, the camera component comprising: an objective portion, a sensor portion and a computer; the objective portion configured to collect light from a subject; the sensor portion reversibly separable from the objective portion; the retaining member being configured to couple the objective portion to the sensor portion when the objective and sensor portions are aligned and also when the objective portion is separated from the sensor portion; characterized in that the objective portion includes one or more alignment markers; the sensor portion includes one or more optical sensor elements configured to sense the one or more alignment markers; the computer is configured to return an indication of alignment of the objective and sensor portions based on output of the one or more optical sensor elements, and wherein each of the one or more alignment markers are self-illuminating or configured to be externally illuminated. an objective portion, a sensor portion and a computer; the objective portion configured to collect light from a subject; the sensor portion reversibly separable from the objective portion; the retaining member being configured to couple the objective portion to the sensor portion when the objective and sensor portions are aligned and also when the objective portion is separated from the sensor portion; characterized in that the objective portion includes one or more alignment markers; the sensor portion includes one or more optical sensor elements configured to sense the one or more alignment markers; the computer is configured to return an indication of alignment of the objective and sensor portions based on output of the one or more optical sensor elements, and wherein each of the one or more alignment markers are self-illuminating or configured to be externally illuminated.
An assembly, comprising: an electrolyte membrane; and a frame that holds the electrolyte membrane, wherein the frame includes a first frame that holds one surface of the electrolyte membrane, and a second frame that holds the other surface of the electrolyte membrane, the frame further includes a joint part that joins the first frame and the second frame, wherein the joint part is located over a first surface of the first frame and a second surface of the second frame characterized in that the joint part has a projection that projects in an outer peripheral direction, in a gap between the peripheral part of the second frame and a boundary part of the first frame and the second frame, wherein projection is in contact only with the second frame. an electrolyte membrane; and a frame that holds the electrolyte membrane, wherein the frame includes a first frame that holds one surface of the electrolyte membrane, and a second frame that holds the other surface of the electrolyte membrane, the frame further includes a joint part that joins the first frame and the second frame, wherein
A method for automatically calibrating a capacitive transducer to neutralize feed-through capacitance starting from an initial value for a neutralization capacitance, the method being characterized by the steps of: applying no electrostatic force to a proof mass of the capacitive transducer; recording a base output value of the capacitive transducer while no electrostatic force is applied to the proof mass; applying an electrostatic force F0 to the proof mass of the capacitive transducer; recording a first change in the output value of the capacitive transducer between the base output value and a first output value when the electrostatic force F0 is applied to the proof mass; applying an electrostatic force n*F0 to the proof mass of the capacitive transducer, where F0 is a fraction of n*F0; recording a second change in the output value of the capacitive transducer between the first output value and a second output value when the electrostatic force n*F0 is applied to the proof mass; increasing, decreasing or maintaining (714, 718, 722) the neutralization capacitance (Cneut) based on the recorded first and second changes in the output value of the capacitive transducer; and repeating the method until a final value for the neutralization capacitance (Cneut) is reached. applying no electrostatic force to a proof mass of the capacitive transducer; recording a base output value of the capacitive transducer while no electrostatic force is applied to the proof mass; applying an electrostatic force F0 to the proof mass of the capacitive transducer; recording a first change in the output value of the capacitive transducer between the base output value and a first output value when the electrostatic force F0 is applied to the proof mass; applying an electrostatic force n*F0 to the proof mass of the capacitive transducer, where F0 is a fraction of n*F0; recording a second change in the output value of the capacitive transducer between the first output value and a second output value when the electrostatic force n*F0 is applied to the proof mass; increasing, decreasing or maintaining (714, 718, 722) the neutralization capacitance (Cneut) based on the recorded first and second changes in the output value of the capacitive transducer; and repeating the method until a final value for the neutralization capacitance (Cneut) is reached.
A method for preparing a plastic film, comprising: applying a coating composition comprising a tri- to hexafunctional acrylate-based monomer, a thermosetting prepolymer composition, an inorganic fine particle, and a photoinitiator to at least one side of a support substrate; and curing the coating composition applied to the support substrate with light and heat to form a coating layer, wherein the tri- to hexafunctional acrylate-based monomer and the thermosetting prepolymer composition are used at a weight ratio of 1:0.1 to 1:1.2, as measured on the basis of solid components thereof, wherein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, evaluated according to the Japanese Standard JIS K5400. applying a coating composition comprising a tri- to hexafunctional acrylate-based monomer, a thermosetting prepolymer composition, an inorganic fine particle, and a photoinitiator to at least one side of a support substrate; and curing the coating composition applied to the support substrate with light and heat to form a coating layer, wherein the tri- to hexafunctional acrylate-based monomer and the thermosetting prepolymer composition are used at a weight ratio of 1:0.1 to 1:1.2, as measured on the basis of solid components thereof, wherein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, evaluated according to the Japanese Standard JIS K5400.
A leg rest release mechanism for a wheelchair, wherein the leg rest release mechanism comprises: a base member having a base portion and an elongated axle portion extending from the base portion, a leg rest swivel frame in swivel connection with the axle portion to enable swivelling of the leg rest swivel frame relative to the axle portion, wherein the leg rest swivel frame is configured to be connected to an elongated foot rest mounting member provided with a foot rest, and a release member having a lifting handle, wherein the release member extends through the leg rest swivel frame and wherein the release member is biased to engage with the base portion to thereby lock the leg rest swivel frame in a fixed position relative to the base member, wherein the release member is configured to disengage from the base portion by pulling of the lifting handle, whereby the leg rest swivel frame is enabled to swivel relative to the base member, characterised in that the release member is rotatable relative to the base portion and the leg rest swivel frame, and wherein the release member includes a rotation handle fixed relative to the lifting handle for rotating the release member, wherein rotation of the release member from a default position in which the release member engages with the base portion causes the release member to be axially displaced relative to the base portion, thereby disengaging from the base portion. a base member having a base portion and an elongated axle portion extending from the base portion, a leg rest swivel frame in swivel connection with the axle portion to enable swivelling of the leg rest swivel frame relative to the axle portion, wherein the leg rest swivel frame is configured to be connected to an elongated foot rest mounting member provided with a foot rest, and a release member having a lifting handle, wherein the release member extends through the leg rest swivel frame and wherein the release member is biased to engage with the base portion to thereby lock the leg rest swivel frame in a fixed position relative to the base member, wherein the release member is configured to disengage from the base portion by pulling of the lifting handle, whereby the leg rest swivel frame is enabled to swivel relative to the base member, characterised in that the release member is rotatable relative to the base portion and the leg rest swivel frame, and wherein the release member includes a rotation handle fixed relative to the lifting handle for rotating the release member, wherein rotation of the release member from a default position in which the release member engages with the base portion causes the release member to be axially displaced relative to the base portion, thereby disengaging from the base portion.
A surveying system, comprising a surveying instrument configured to measure a distance and an angle by projecting a distance measuring light toward a target via a telescope, and capable of measuring three-dimensional position data of said target and having a tracking function for tracking said target by receiving a reflection light from said target via said telescope, and a movable side control device provided on said target, wherein said surveying instrument has a first communication means and a first control arithmetic unit for controlling the search for said target by said telescope of said surveying instrument, wherein said movable side control device has a displacement amount detecting means of said target and a second control arithmetic unit for calculating the displacement amount of said target and the moving direction of said target based on a target detection signal from said displacement amount detecting means and for calculating a target position based on the displacement amount of said target and the moving direction of said target and a second communication means for transmitting said target position, characterised in that the first communication means is capable of transmitting the three-dimensional position data of said target measured by said surveying instrument to said movable side control device, that said second control arithmetic unit is arranged to calculate said target position based on the displacement amount and moving direction with respect to said three-dimensional position data and that in the event that said surveying instrument cannot track said target during the searching operation for said target, said surveying instrument acquires said target position transmitted from said movable side control device at the time when said target cannot be tracked, and said first control arithmetic unit makes said surveying instrument start searching for said target at said target position as a starting point.