mhurhangee/patent-ind-claim-en huggingface dataset:
A subsea uninterruptible power supply unit for subsea applications comprising a flow battery including: - at least a flow battery module having at least a negative electrode cell and at least a positive electrode cell , - a first electrolyte storage tank connected to the negative electrode cell to provide the negative electrode cell with a first electrolyte, - a second electrolyte storage tank connected to the positive electrode cell to provide the positive electrode cell with a second electrolyte, wherein the uninterruptible power supply unit further comprises at least one electrolyte pressure compensator connected to the first electrolyte storage tank and to the second electrolyte storage tank , respectively, for providing pressure balancing between an ambient medium surrounding the at least one electrolyte pressure compensator and the first and second electrolytes inside the first and second electrolyte storage tanks . - at least a flow battery module having at least a negative electrode cell and at least a positive electrode cell , - a first electrolyte storage tank connected to the negative electrode cell to provide the negative electrode cell with a first electrolyte, - a second electrolyte storage tank connected to the positive electrode cell to provide the positive electrode cell with a second electrolyte, wherein the uninterruptible power supply unit further comprises at least one electrolyte pressure compensator connected to the first electrolyte storage tank and to the second electrolyte storage tank , respectively, for providing pressure balancing between an ambient medium surrounding the at least one electrolyte pressure compensator and the first and second electrolytes inside the first and second electrolyte storage tanks .
A hammer drill , which performs a predetermined operation by linearly and rotationally driving a detachably coupled tool bit , comprising a tool body , a motor that is housed in the tool body , an impact drive mechanism that is driven by the motor and linearly drives the tool bit , a rotary drive mechanism that is driven by the motor and rotationally drives the tool bit , a first sensor that detects torque of the tool bit , a second sensor that detects motion of the tool body , and a torque transmission interrupting mechanism that can interrupt torque transmission between the motor and the tool bit , wherein the torque transmission interrupting mechanism is an electromagnetic clutch that is disposed in a rotary drive path of the rotary drive mechanism and can transmit torque and can interrupt the torque transmission between the motor and the tool bit , wherein the electromagnetic clutch includes a driving-side rotating member , a driven-side rotating member , a biasing member that biases the rotating members away from each other so as to interrupt torque transmission, and an electromagnetic coil that brings the rotating members into contact with each other against the biasing force of the biasing member and transmits torque when the electromagnetic coil is energized, and the electromagnetic clutch interrupts torque transmission when the first sensor detects a preset threshold of the first sensor and the second sensor detects a preset threshold of the second sensor .
An adaptive analytical instrument, comprising a computer controlled target-analyte permeation testing instrument programmed to periodically measure target-analyte transmission rate throughout a permeation testing period using a target-analyte sensor; characterised in that the computer controlled target-analyte permeation testing instrument is further programmed to - periodically rezero the target-analyte sensor throughout the permeation testing period; and - adjust frequency of future rezeros of the target-analyte sensor based upon the value of at least one previous target-analyte transmission rate measurement by bypassing a scheduled rezero when the value of at least one previous target-analyte transmission rate measurement exceeds a predetermined threshold value. - periodically rezero the target-analyte sensor throughout the permeation testing period; and - adjust frequency of future rezeros of the target-analyte sensor based upon the value of at least one previous target-analyte transmission rate measurement by bypassing a scheduled rezero when the value of at least one previous target-analyte transmission rate measurement exceeds a predetermined threshold value.
An electronic device having a front, a back and a plurality of sides, the electronic device comprising: an electronic device housing forming an outermost region of the plurality of sides and the back of the electronic device ; a display window at the front of the electronic device ; a display panel having a length, a width and a depth; and a film , different from the display window , comprising a first portion and a second portion , wherein the first portion extends along an upper surface of the display panel defined by the length and the width, an upper side of the first portion of the film is attached to an inner surface of the display window , and the first portion of the film covers all of the pixels of the display panel , and wherein the second portion : extends at least partially along the depth, is in contact with a side of the display panel , and is coupled to the electronic device housing , and wherein tension in the film holds the display panel in place in the electronic device housing characterised in that : the second portion is a support or a substrate for at least one touch sensor or at least one key , provided on a side of the plurality of sides of the electronic device housing . an electronic device housing forming an outermost region of the plurality of sides and the back of the electronic device ; a display window at the front of the electronic device ; a display panel having a length, a width and a depth; and a film , different from the display window , comprising a first portion and a second portion , wherein the first portion extends along an upper surface of the display panel defined by the length and the width, an upper side of the first portion of the film is attached to an inner surface of the display window , and the first portion of the film covers all of the pixels of the display panel , and wherein the second portion : extends at least partially along the depth, is in contact with a side of the display panel , and is coupled to the electronic device housing , and wherein tension in the film holds the display panel in place in the electronic device housing characterised in that : the second portion is a support or a substrate for at least one touch sensor or at least one key , provided on a side of the plurality of sides of the electronic device housing .
An air-conditioning apparatus comprising: a casing ; a heat exchanger disposed in the casing ; a sirocco fan disposed in the casing and located upstream of the heat exchanger along a flow passage such that an air outlet of the sirocco fan faces the heat exchanger ; a drain pan disposed in the casing and located below the heat exchanger , the drain pan receiving drain water generated in the heat exchanger ; and a dew-scattering-reducing part that reduces scattering of the drain water, wherein the dew-scattering-reducing part is disposed outside a region (M) enclosed by extension lines from the air outlet toward the heat exchanger , inside the drain pan , characterized in that the dew-scattering-reducing part includes a first reducing portion that is an elongated plate-shaped part, a length of the first reducing portion in a longitudinal direction is greater than a length of the air outlet in a direction parallel to a rotational axis of the sirocco fan , the longitudinal direction of the first reducing portion is parallel to the rotational axis, and both end portions of the first reducing portion in the longitudinal direction are positioned outside the air outlet , and the first reducing portion is disposed such that a short-side direction thereof is parallel to a vertical direction of the casing , and a lower end portion of the first reducing portion extends to the region (M). a casing ; a heat exchanger disposed in the casing ; a sirocco fan disposed in the casing and located upstream of the heat exchanger along a flow passage such that an air outlet of the sirocco fan faces the heat exchanger ; a drain pan disposed in the casing and located below the heat exchanger , the drain pan receiving drain water generated in the heat exchanger ; and a dew-scattering-reducing part that reduces scattering of the drain water, wherein the dew-scattering-reducing part is disposed outside a region (M) enclosed by extension lines from the air outlet toward the heat exchanger , inside the drain pan , characterized in that the dew-scattering-reducing part includes a first reducing portion that is an elongated plate-shaped part, a length of the first reducing portion in a longitudinal direction is greater than a length of the air outlet in a direction parallel to a rotational axis of the sirocco fan , the longitudinal direction of the first reducing portion is parallel to the rotational axis, and both end portions of the first reducing portion in the longitudinal direction are positioned outside the air outlet , and the first reducing portion is disposed such that a short-side direction thereof is parallel to a vertical direction of the casing , and a lower end portion of the first reducing portion extends to the region (M).
A rechargeable lithium air battery comprising a ceramic separator forming an anode chamber, a molten lithium anode contained in the anode chamber, a porous air cathode, and a non-aqueous liquid electrolyte contained in the cathode, wherein the cathode has a temperature gradient comprising a low temperature region and a high temperature region, and wherein the temperature gradient provides a flow system for reaction product produced by the battery, the battery further comprising an electrolyte reservoir adjacent to the cathode and a pump and a temperature control system, wherein the pump is configured to control movement of the electrolyte between the cathode and the electrolyte reservoir, and the control system is configured to control the temperatures of the cathode and the electrolyte reservoir, wherein the battery comprises a heater configured to control the temperature of the electrolyte reservoir from 200°C to 450°C, and wherein the cathode comprises a core adjacent to the ceramic separator and at least one fin extending radially outward from the core, and wherein the core is the high temperature region of the cathode and the at least one fin is the low temperature region of the cathode.
A flow control method, wherein the method is applied to a wireless relay system, the wireless relay system comprises a first node, a second node and a donor node, the second node is an upper-level node of the first node and a lower-level node of the donor node, and the method comprises: determining (S901), by the first node, to indicate the second node to perform flow control; and sending (S902), by the first node, a first flow control indication to the second node, wherein the first flow control indication is carried in adaptation layer control signaling, the first flow control indication is used by the second node to control, based on the first flow control indication, transmission to the first node, the first flow control indication comprises identifiers of one or more radio link control, RLC, backhaul channels and flow control information, and the second node is a relay node; sending (S904), by the first node, a second flow control indication to the donor node, wherein the second flow control indication comprises the identifiers of the one or more RLC backhaul channels, wherein the second flow control indication is used by the donor node to control, based on the second flow control indication, transmission to the first node; wherein the first flow control indication comprises a donor node notification indication to indicate that the first node simultaneously indicates the donor node to perform flow control. determining (S901), by the first node, to indicate the second node to perform flow control; and sending (S902), by the first node, a first flow control indication to the second node, wherein the first flow control indication is carried in adaptation layer control signaling, the first flow control indication is used by the second node to control, based on the first flow control indication, transmission to the first node, the first flow control indication comprises identifiers of one or more radio link control, RLC, backhaul channels and flow control information, and the second node is a relay node; sending (S904), by the first node, a second flow control indication to the donor node, wherein the second flow control indication comprises the identifiers of the one or more RLC backhaul channels, wherein the second flow control indication is used by the donor node to control, based on the second flow control indication, transmission to the first node; wherein the first flow control indication comprises a donor node notification indication to indicate that the first node simultaneously indicates the donor node to perform flow control.
A system comprising a fuel tank of an aircraft and a cooling system for the fuel tank, the cooling system comprising: a temperature sensor for detecting a fuel temperature within the fuel tank , wherein the cooling system maintains the fuel temperature below a control temperature; the cooling system further including a heat exchanger , wherein a cooling fluid flows through the heat exchanger and is in thermal communication with a surface of the fuel tank ; and a control module in signal communication with the temperature sensor and the cooling system, the control module including control logic for: monitoring the temperature sensor ; determining if the fuel temperature is above the control temperature; and generating an activation signal to activate the cooling system if the fuel temperature is above the control temperature; wherein the heat exchanger comprises a cooling loop , which contacts a lowermost surface of the fuel tank wherein the cooling fluid flows through the cooling loop ; and wherein the cooling system further comprises a heat shield located directly below the heat exchanger . a temperature sensor for detecting a fuel temperature within the fuel tank , wherein the cooling system maintains the fuel temperature below a control temperature; the cooling system further including a heat exchanger , wherein a cooling fluid flows through the heat exchanger and is in thermal communication with a surface of the fuel tank ; and a control module in signal communication with the temperature sensor and the cooling system, the control module including control logic for: monitoring the temperature sensor ; determining if the fuel temperature is above the control temperature; and generating an activation signal to activate the cooling system if the fuel temperature is above the control temperature; monitoring the temperature sensor ; determining if the fuel temperature is above the control temperature; and generating an activation signal to activate the cooling system if the fuel temperature is above the control temperature; wherein the heat exchanger comprises a cooling loop , which contacts a lowermost surface of the fuel tank wherein the cooling fluid flows through the cooling loop ; and wherein the cooling system further comprises a heat shield located directly below the heat exchanger .
Soil roller comprising a support tube on which multiple tires arranged on rims are arranged at a distance to one another, wherein axle flanges on which the rims are fastened, are provided on the support tube , characterized in that also in the mounted state of the rims , the axle flanges and the rims are without mutual overlap, wherein the rims are fastened to the axle flanges by means of ring-segment-type mounting plates , wherein the mounting plates , when viewed in a direction of view parallel to the support tube longitudinal axis conceal both the axle flanges and the rims and are clamped against in each case one axle flange and the associated rim from at least one side.
A self-propelled vehicle comprising: - a light emitting device for emitting light pulses; and - an imaging device for capturing images of the surroundings of the self-propelled vehicle , the imaging device comprising light sensors and a shutter; wherein - the light emitting device is coordinated with the shutter of the imaging device , such that an image of the surroundings of the self-propelled vehicle is captured by the imaging device during at least part of the duration of a light pulse; - the light emitting device is configured to emit light pulses wherein each light pulse has a duration of less than 5000 μs; and - the self-propelled vehicle is an aerial drone; characterized in that the imaging device is configured to convert light to electrical signals without using any electrical amplifier to provide gain to image signals generated by the light sensors of the imaging device, and in that the light pulses are light pulses of high power in order to reduce image noise in the images captured by the imaging device . - a light emitting device for emitting light pulses; and - an imaging device for capturing images of the surroundings of the self-propelled vehicle , the imaging device comprising light sensors and a shutter; wherein - the light emitting device is coordinated with the shutter of the imaging device , such that an image of the surroundings of the self-propelled vehicle is captured by the imaging device during at least part of the duration of a light pulse; - the light emitting device is configured to emit light pulses wherein each light pulse has a duration of less than 5000 μs; and - the self-propelled vehicle is an aerial drone; characterized in that the imaging device is configured to convert light to electrical signals without using any electrical amplifier to provide gain to image signals generated by the light sensors of the imaging device, and in that the light pulses are light pulses of high power in order to reduce image noise in the images captured by the imaging device . characterized in that the imaging device is configured to convert light to electrical signals without using any electrical amplifier to provide gain to image signals generated by the light sensors of the imaging device, and in that the light pulses are light pulses of high power in order to reduce image noise in the images captured by the imaging device .
A qualitative gel-based method of identifying the presence of a DHA canola NS-B50027-4 event or progeny thereof in a biological sample, said method comprising detecting a two event-specific detection method that comprises (a) extracting a DNA sample from said biological sample; (b) providing a first DNA primer pair combination, wherein said first DNA primer pair combination is from nucleotides as set forth in SEQ ID NO: 1 (A05-216F) and SEQ ID NO:2 (A05-216R); (c) providing a second DNA primer pair combination, wherein said second DNA primer pair combination is from nucleotides as set forth in SEQ ID NO:3 (A02-258F) and SEQ ID NO:4 (A02-258R); (d) providing DNA amplification reaction conditions; and (e) performing two separate DNA amplification reactions with said first (as in step (b)) and second (as in step (c)) DNA primer pair combinations, thereby producing an amplicon pair consisting of a 216-bp amplicon and a 258-bp amplicon, respectively; wherein the presence of said amplicon pair identifies the presence of the DHA canola NS- B50027-4 event or progeny thereof in the biological sample. (a) extracting a DNA sample from said biological sample; (b) providing a first DNA primer pair combination, wherein said first DNA primer pair combination is from nucleotides as set forth in SEQ ID NO: 1 (A05-216F) and SEQ ID NO:2 (A05-216R); (c) providing a second DNA primer pair combination, wherein said second DNA primer pair combination is from nucleotides as set forth in SEQ ID NO:3 (A02-258F) and SEQ ID NO:4 (A02-258R); (d) providing DNA amplification reaction conditions; and (e) performing two separate DNA amplification reactions with said first (as in step (b)) and second (as in step (c)) DNA primer pair combinations, thereby producing an amplicon pair consisting of a 216-bp amplicon and a 258-bp amplicon, respectively;
A base stock composition obtainable by radical coupling using a peroxide catalyst of a feedstock having a viscosity index of 50 to 120, a kinematic viscosity at 100°C of 12 cSt or less, a sulfur content less than 0.03 wt%, and an aromatics content less than 10 wt% to form a coupled effluent, followed by fractionating said coupled effluent; said base stock composition having a number average molecular weight (M n ) of 600 g/mol to 4000 g/mol, a weight average molecular weight (M w ) of 1000 g/mol to 12000 g/mol, a polydispersity (M w / M n ) of at least 1.15, a sulfur content of 0.03 wt% or less, an aromatics content of 10 wt% or less, a kinematic viscosity at 100°C of at least 14 cSt, a kinematic viscosity at 40°C of at least 150 cSt, a viscosity index of 50 to 120, and a pour point of 0°C or less.