mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit comprising: a first power supply terminal (406T0) that receives a first adjustable power supply voltage; a second power supply terminal (406B0) that receives a second adjustable power supply voltage; a first non-volatile resistive element (RT00) that comprises: a first anode terminal coupled to the first power supply terminal; and a first cathode terminal; and a second non-volatile resistive element (RB00) that comprises: a second anode terminal coupled to the second power supply terminal (RB00); a second cathode terminal coupled to the first cathode terminal of the first non-volatile resistive element (RT00); and a driver circuit coupled to the first non-volatile resistive element (RT00) via the first power supply terminal (406T0), coupled to the second non-volatile resistive element (RT00) via the second power supply terminal (406B0), and coupled to a node between the first non-volatile resistive element (RT00) and the second resistive element (RB00) via a transistor (306-00), said driver circuit configured to provide a negative voltage to the first anode terminal of the non-volatile resistive element (RB00) and a positive voltage to the first cathode terminal of the first non-volatile resistive element (RT00), wherein the first non-volatile resistive element (RT00) is erased to a high resistance state, HRS, responsive to both voltages. a first power supply terminal (406T0) that receives a first adjustable power supply voltage; a second power supply terminal (406B0) that receives a second adjustable power supply voltage; a first non-volatile resistive element (RT00) that comprises: a first anode terminal coupled to the first power supply terminal; and a first cathode terminal; and a first anode terminal coupled to the first power supply terminal; and a first cathode terminal; and a second non-volatile resistive element (RB00) that comprises: a second anode terminal coupled to the second power supply terminal (RB00); a second cathode terminal coupled to the first cathode terminal of the first non-volatile resistive element (RT00); and a driver circuit coupled to the first non-volatile resistive element (RT00) via the first power supply terminal (406T0), coupled to the second non-volatile resistive element (RT00) via the second power supply terminal (406B0), and coupled to a node between the first non-volatile resistive element (RT00) and the second resistive element (RB00) via a transistor (306-00), said driver circuit configured to provide a negative voltage to the first anode terminal of the non-volatile resistive element (RB00) and a positive voltage to the first cathode terminal of the first non-volatile resistive element (RT00), wherein the first non-volatile resistive element (RT00) is erased to a high resistance state, HRS, responsive to both voltages. a second anode terminal coupled to the second power supply terminal (RB00); a second cathode terminal coupled to the first cathode terminal of the first non-volatile resistive element (RT00); and
A package for products which contain mercury comprising: sorbent material effective for capturing and stabilizing mercury, the sorbent material comprising unstabilized nano-Se particles, and a carrier material which forms a part of a package, the sorbent material being carried on the carrier material. sorbent material effective for capturing and stabilizing mercury, the sorbent material comprising unstabilized nano-Se particles, and a carrier material which forms a part of a package, the sorbent material being carried on the carrier material.
Automatic device for emptying bags of frozen blood product, which comprises: - a product removal device; - a product reception hopper; - transport means for transporting the bag from a reception area to the product removal device; - cutting means located in the path of the bag between the reception area and the product removal device characterised in that the cutting means are housed in an oscillating support which comprises means suitable for absorbing the energy of the impacts of the bag against the cutting means and for returning said cutting means to their initial position and in that the means for transporting the bag are configured to modify their path depending on the shape of the bag. - a product removal device; - a product reception hopper; - transport means for transporting the bag from a reception area to the product removal device; - cutting means located in the path of the bag between the reception area and the product removal device
An instrument fluid temperature control system , comprising: a process fluid inflow of the instrument adapted to provide a process fluid ; a process fluid outflow of the instrument; a first fluid path fluidly coupled to the process fluid inflow and the process fluid outflow ; and at least one heat exchanger coupled to the first fluid path and adapted to extract heat generated by the instrument and heat the process fluid ; characterized in that a blend valve is fluidly coupled to the process fluid inflow and to the first fluid path and is adapted to control a temperature of the process fluid in the process fluid outflow . a process fluid inflow of the instrument adapted to provide a process fluid ; a process fluid outflow of the instrument; a first fluid path fluidly coupled to the process fluid inflow and the process fluid outflow ; and at least one heat exchanger coupled to the first fluid path and adapted to extract heat generated by the instrument and heat the process fluid ; characterized in that a blend valve is fluidly coupled to the process fluid inflow and to the first fluid path and is adapted to control a temperature of the process fluid in the process fluid outflow .
A training manikin for practising cardiopulmonary resuscitation, the manikin being collapsible into a storage position and expandable into a training position, said manikin comprising a torso part , the torso part comprising; - a base board , - a lung plate arranged approximately parallel with and at a distance to said base board , - a chest board arranged approximately parallel with said base board , and - a retaining member adapted to retain the torso part in the storage position, - a resilient member positioned between said base board and said lung plate , the resilient member having a first end and a second end opposed to said first end, the first end being connected to the base board and the second end being connected to the lung plate , the resiliency of the resilient member being adapted to simulate the resistance encountered in compressing a human chest, characterized in that the resiliency of the resilient member is biased to bring the torso part from the storage position to the training position. - a base board , - a lung plate arranged approximately parallel with and at a distance to said base board , - a chest board arranged approximately parallel with said base board , and - a retaining member adapted to retain the torso part in the storage position, - a resilient member positioned between said base board and said lung plate , the resilient member having a first end and a second end opposed to said first end, the first end being connected to the base board and the second end being connected to the lung plate , the resiliency of the resilient member being adapted to simulate the resistance encountered in compressing a human chest,
A mobile phone , comprising: a display panel , comprising a display area , the display area comprising a display surface and a back surface opposite to the display surface , the display panel defining a slot extending through the display surface and the back surface , the slot being located in the display area , the display area comprising a plurality of image pixels; a touch panel , coupled to the display panel ; wherein the slot includes a hole located spaced from each edge of the display panel , the hole is configured for exposure of at least four components of the mobile phone , characterized in that the at least four components include at least two cameras , a receiver , a light sensor , the at least two cameras are received in the hole and configured to obtain images from objects outside the electronic device , each of the at least two cameras comprises a lens holder and a lens barrel coupled to the lens holder , the light sensor is located on the top surfaces of the lens holders of two cameras and the receiver is located on a plane of the top surfaces of the lens holders of the two cameras . a display panel , comprising a display area , the display area comprising a display surface and a back surface opposite to the display surface , the display panel defining a slot extending through the display surface and the back surface , the slot being located in the display area , the display area comprising a plurality of image pixels; a touch panel , coupled to the display panel ; wherein the slot includes a hole located spaced from each edge of the display panel , the hole is configured for exposure of at least four components of the mobile phone , characterized in that the at least four components include at least two cameras , a receiver , a light sensor , the at least two cameras are received in the hole and configured to obtain images from objects outside the electronic device , each of the at least two cameras comprises a lens holder and a lens barrel coupled to the lens holder , the light sensor is located on the top surfaces of the lens holders of two cameras and the receiver is located on a plane of the top surfaces of the lens holders of the two cameras .
A method for ship-to-ship transfer of hydrocarbon liquids comprising: - mooring a first tanker to a single-point mooring buoy , the buoy having a first port and a second port and a fluid conduit connecting the first and second ports, and the first tanker being a conventional tanker which does not include a dynamic positioning system for maintaining position at the buoy; - connecting a first hose string between the first port of the buoy and the first tanker ; - positioning a second tanker near the buoy , the second tanker having a dynamic positioning system for holding position near the buoy; - connecting a second hose string between the second port of the buoy and the second tanker ; and - pumping a hydrocarbon liquid between the first and second tankers , via the first hose , the fluid conduit of the buoy, and the second hose , wherein the single-point mooring buoy is located between 8 km and 1000 km (5 miles and 700 miles) away from an FPSO unit. - mooring a first tanker to a single-point mooring buoy , the buoy having a first port and a second port and a fluid conduit connecting the first and second ports, and the first tanker being a conventional tanker which does not include a dynamic positioning system for maintaining position at the buoy; - connecting a first hose string between the first port of the buoy and the first tanker ; - positioning a second tanker near the buoy , the second tanker having a dynamic positioning system for holding position near the buoy; - connecting a second hose string between the second port of the buoy and the second tanker ; and - pumping a hydrocarbon liquid between the first and second tankers , via the first hose , the fluid conduit of the buoy, and the second hose , wherein the single-point mooring buoy is located between 8 km and 1000 km (5 miles and 700 miles) away from an FPSO unit.
Use of a composition comprising a) at least one alcohol and b) at least one thickener for reducing air inclusions in the vertical bonding of two adherends, the composition having - a viscosity of 1000 to 4000 Pa*s at a shear rate of 0.001/s and 25°C and - a viscosity of 0.1 to 0.3 Pa*s at a shear rate of 1000/s and 25°C. a) at least one alcohol and b) at least one thickener - a viscosity of 1000 to 4000 Pa*s at a shear rate of 0.001/s and 25°C and - a viscosity of 0.1 to 0.3 Pa*s at a shear rate of 1000/s and 25°C.
Sealing tape having a foam carrier, wherein this foam carrier extends in a predetermined longitudinal direction (L) and has a first surface and a second surface and these surfaces are opposite to each other, wherein a first cut is arranged in the first surface, which extends at least also in a thickness direction (D), wherein this thickness direction extends from the first surface to the second surface , as well as a second cut is arranged in the second surface , which likewise extends at least also in this thickness direction (D), wherein at least one of those cuts extends in a predetermined angle which is different from 0° relative to the thickness direction (D) and within these two cuts a foil strip , an adhesive tape strip and/or an adhesive-like media is inserted, characterized in that the first cut and the second cut cross each other.
A fine cellulose fiber composite in which a modifying group is bound to a carboxy group of fine cellulose fibers, wherein the modifying group is a hydrocarbon group and/or a copolymer moiety, the fine cellulose fibers having a carboxy group content of 0.1 mmol/g or more, wherein the fine cellulose fiber composite has an average aspect ratio of 1 or more and 100 or less.
A computer implemented method comprising: receiving , at a first server , a request for directing a data resource to a client ; determining a second server for responding to the request ; redirecting the request to the second server ; receiving, by said first server , preparatory data from the client prior to redirecting the request to the second server ; wherein the preparatory data comprises cryptographic materials for encrypting messages for sending to the second server on behalf of the client sending the cryptographic materials to the second server as part of redirecting the request to the second server ; and providing for the second server to connect to the client and directly respond to the request, wherein the second server is located remote from the first server and the client , and the second server has not been previously connected to the client . receiving , at a first server , a request for directing a data resource to a client ; determining a second server for responding to the request ; redirecting the request to the second server ; receiving, by said first server , preparatory data from the client prior to redirecting the request to the second server ; wherein the preparatory data comprises cryptographic materials for encrypting messages for sending to the second server on behalf of the client sending the cryptographic materials to the second server as part of redirecting the request to the second server ; and providing for the second server to connect to the client and directly respond to the request, wherein the second server is located remote from the first server and the client , and the second server has not been previously connected to the client .
An imaging device comprising: pixels arranged one-dimensionally or two-dimensionally, each of the pixels including an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, characterized in that the photoelectric conversion layer contains semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconducting carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and that the photoelectric conversion layer contains the first substance , and the charge capturing unit captures negative charges. pixels arranged one-dimensionally or two-dimensionally, each of the pixels including an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, characterized in that the photoelectric conversion layer contains semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconducting carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconducting carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and that the photoelectric conversion layer contains the first substance , and the charge capturing unit captures negative charges.
A device , comprising: a component capable of operating at an operational power state being one of a plurality of power states for using a variable amount of power; a power source for supplying power to the component ; a comparator for comparing a current drawn from the power source with a current threshold and for outputting a signal based at least in part on the comparing, the current threshold being below a maximum current capability of the power source ; and a manager for throttling and unthrottling the component based at least in part on the signal, the manager being configured to throttle the component by lowering a maximum power state of the component , the manager being configured to unthrottle the component by raising the maximum power state of the component , the maximum power state being one of the plurality of power states, the operational power state being prevented from exceeding the maximum power state. a component capable of operating at an operational power state being one of a plurality of power states for using a variable amount of power; a power source for supplying power to the component ; a comparator for comparing a current drawn from the power source with a current threshold and for outputting a signal based at least in part on the comparing, the current threshold being below a maximum current capability of the power source ; and a manager for throttling and unthrottling the component based at least in part on the signal, the manager being configured to throttle the component by lowering a maximum power state of the component , the manager being configured to unthrottle the component by raising the maximum power state of the component , the maximum power state being one of the plurality of power states, the operational power state being prevented from exceeding the maximum power state.
Method for estimating a grid state of an electrical power distribution grid having a multiplicity of network sections , in which a central computer arrangement is used to receive measured values from measuring devices , wherein a state estimation device is used to make a prediction of a future grid state , wherein a voltage and a phase angle are respectively ascertained for each network section , and wherein a Bayes method is used for the prediction, characterized in that the Bayes method is a naive Bayes method, and in that the input data taken into consideration are historical measurement data pertaining to the real power and/or are historical and predicted weather data, and in that the probability of the future grid state is provided by the measured values, and in that specific predictions for individual measuring devices that each have a measurement-location-specific degree of error are taken into consideration for the prediction, wherein the respective degree of error is used to determine a measurement-location-specific weighting factor such that specific predictions are weighted all the more highly the lower their degree of error. a central computer arrangement is used to receive measured values from measuring devices , wherein a state estimation device is used to make a prediction of a future grid state , wherein a voltage and a phase angle are respectively ascertained for each network section , and wherein a Bayes method is used for the prediction, characterized in that the Bayes method is a naive Bayes method, and in that the input data taken into consideration are historical measurement data pertaining to the real power and/or are historical and predicted weather data, and in that the probability of the future grid state is provided by the measured values, and in that specific predictions for individual measuring devices that each have a measurement-location-specific degree of error are taken into consideration for the prediction, wherein the respective degree of error is used to determine a measurement-location-specific weighting factor such that specific predictions are weighted all the more highly the lower their degree of error.
Flap system for a building , which is designed in particular as a ventilation device, sun screen, insulation protection, privacy screen and/or weather protection, comprising - a support arm , by means of which a support axis is mounted in a manner that is translationally fixed and rotatable about the longitudinal axis thereof; - a flap that is connected for conjoint rotation with the support axis and thereby pivotable, wherein the support axis is arranged between a top end and a bottom end of the flap ; - a frame structure being used as a transmission which is connected to the flap ; - a driver unit which is mounted to move in a translational manner in the vertical direction of the flap system and which is connected in an articulated manner by means of a compensating element to the frame structure so that a translational movement of the driver unit causes the flap to pivot; - a drive device for moving the driver unit . - a support arm , by means of which a support axis is mounted in a manner that is translationally fixed and rotatable about the longitudinal axis thereof; - a flap that is connected for conjoint rotation with the support axis and thereby pivotable, wherein the support axis is arranged between a top end and a bottom end of the flap ; - a frame structure being used as a transmission which is connected to the flap ; - a driver unit which is mounted to move in a translational manner in the vertical direction of the flap system and which is connected in an articulated manner by means of a compensating element to the frame structure so that a translational movement of the driver unit causes the flap to pivot; - a drive device for moving the driver unit .