mhurhangee/patent-ind-claim-en huggingface dataset:
A solid state alkali metal based secondary cell, comprising: an anolyte compartment comprising a negative electrode , wherein the negative electrode consists of a carbon-based first alkali metal intercalation material; a catholyte compartment comprising a positive electrode , wherein the positive electrode consists of a second alkali metal intercalation material that is different than the first alkali metal intercalation material; and a solid alkali metal ion conductive ceramic electrolyte membrane that separates the negative electrode from the positive electrode, wherein the negative electrode is in direct contact with a first side of the electrolyte membrane, wherein the positive electrode is in direct contact with a second side of the electrolyte membrane that is substantially opposite to the first side, and wherein the electrolyte membrane is selected from the group consisting of a sodium ion conductive ceramic NaSICON-type material and a lithium ion ceramic LiSICON-type material. an anolyte compartment comprising a negative electrode , wherein the negative electrode consists of a carbon-based first alkali metal intercalation material; a catholyte compartment comprising a positive electrode , wherein the positive electrode consists of a second alkali metal intercalation material that is different than the first alkali metal intercalation material; and a solid alkali metal ion conductive ceramic electrolyte membrane that separates the negative electrode from the positive electrode, wherein the negative electrode is in direct contact with a first side of the electrolyte membrane, wherein the positive electrode is in direct contact with a second side of the electrolyte membrane that is substantially opposite to the first side, and wherein the electrolyte membrane is selected from the group consisting of a sodium ion conductive ceramic NaSICON-type material and a lithium ion ceramic LiSICON-type material.
A composite blade (24; 24') for a modular axial flow fan , the blade comprising: a tip (24-1); a root end (24-2) opposite the tip, wherein a blade length (L) is defined between the root end and the tip; a mounting pad located adjacent to the root end and having a planar configuration; a working portion adjoining the tip, wherein the working portion defines an aerodynamic profile; and a transition zone between the mounting pad and the working portion; characterized by : a reinforcement skin localized around the root end along the blade length, wherein the reinforcement skin is provided by a reinforcement mat wrapped around the root end that extends through the mounting pad and the transition zone and partially into the working portion. a tip (24-1); a root end (24-2) opposite the tip, wherein a blade length (L) is defined between the root end and the tip; a mounting pad located adjacent to the root end and having a planar configuration; a working portion adjoining the tip, wherein the working portion defines an aerodynamic profile; and a transition zone between the mounting pad and the working portion; characterized by : a reinforcement skin localized around the root end along the blade length, wherein the reinforcement skin is provided by a reinforcement mat wrapped around the root end that extends through the mounting pad and the transition zone and partially into the working portion.
A trimmer , comprising: a handle assembly , a power mechanism locating at one end of the handle assembly and having a housing assembly , a motor (22; 70) and a power transmission assembly both received in the housing assembly , the motor (22; 70) having an output shaft (221; 73) and the power transmission assembly having a pinion (232; 90) mounted on the output shaft (221; 73) of the motor (22; 70) and a big gear (233; 80) engaging with the pinion , and a blade assembly connected to the power mechanism , wherein the motor (22; 70) is an external rotor motor (22; 70) which has a diameter greater or equal to 50 mm, characterized in that, the transmission ratio between the pinion and the big gear is less than 6, and the power transmission assembly has a bottom cover connected to a bottom of the housing assembly and a fan sandwiched between the bottom cover and the housing assembly , wherein the bottom cover defines a blower chamber for receiving the fan and a heat dissipation channel extending there through for air passing from the blower chamber to outside. a handle assembly , a power mechanism locating at one end of the handle assembly and having a housing assembly , a motor (22; 70) and a power transmission assembly both received in the housing assembly , the motor (22; 70) having an output shaft (221; 73) and the power transmission assembly having a pinion (232; 90) mounted on the output shaft (221; 73) of the motor (22; 70) and a big gear (233; 80) engaging with the pinion , and a blade assembly connected to the power mechanism , the motor (22; 70) is an external rotor motor (22; 70) which has a diameter greater or equal to 50 mm, characterized in that, the transmission ratio between the pinion and the big gear is less than 6, and the power transmission assembly has a bottom cover connected to a bottom of the housing assembly and a fan sandwiched between the bottom cover and the housing assembly , wherein the bottom cover defines a blower chamber for receiving the fan and a heat dissipation channel extending there through for air passing from the blower chamber to outside.
Floor protector for a seat having a floor assembly , having a base body , comprising an upper face and a lower face , and two sliding elements arranged in a recess or in two recesses in the base body and each having an outer surface associated with a ground surface , wherein the base body is resilient or formed with a spring element , at least in a sub-region , in such a way that a deformation of the spring element and/or of the sub-region in the vertical direction (v) can be configured in such a way that, in a loaded state, as a result of deformation of the spring element or of the sub-region , the lower face of the base body can be brought into full-area contact with the ground surface , in such a way that adhesion to the ground surface is made possible, wherein the base body , in an unloaded state, is formed convex on the lower face , the convex region forming the resilient sub-region and/or the spring element . having a base body , comprising an upper face and a lower face , and two sliding elements arranged in a recess or in two recesses in the base body and each having an outer surface associated with a ground surface , wherein the base body is resilient or formed with a spring element , at least in a sub-region , in such a way that a deformation of the spring element and/or of the sub-region in the vertical direction (v) can be configured in such a way that, in a loaded state, as a result of deformation of the spring element or of the sub-region , the lower face of the base body can be brought into full-area contact with the ground surface , in such a way that adhesion to the ground surface is made possible, wherein the base body , in an unloaded state, is formed convex on the lower face , the convex region forming the resilient sub-region and/or the spring element .
A method comprising: controlling access to a shared memory through a memory network shared by multiple compute nodes by the memory network: receiving a memory access request originating from an application executing on the multiple compute nodes; determining a priority for processing the memory access request, wherein the priority corresponds to a memory address range in the memory that is specifically correlated or assigned for use by the application and higher priority allocates a higher proportion of bandwidth for accessing the shared memory; and increasing the priority that corresponds to the memory address range specifically correlated or assigned for use by the application in response to instructions from a monitoring system that maintains a configuration file specifying the SLA requirements for the application after the monitoring system identifies a violation to the SLA requirement of the application and correlates the violation of the SLA requirement to a memory access contention for the shared memory. receiving a memory access request originating from an application executing on the multiple compute nodes; determining a priority for processing the memory access request, wherein the priority corresponds to a memory address range in the memory that is specifically correlated or assigned for use by the application and higher priority allocates a higher proportion of bandwidth for accessing the shared memory; and increasing the priority that corresponds to the memory address range specifically correlated or assigned for use by the application in response to instructions from a monitoring system that maintains a configuration file specifying the SLA requirements for the application after the monitoring system identifies a violation to the SLA requirement of the application and correlates the violation of the SLA requirement to a memory access contention for the shared memory.
A yarn to be used in fabric for cooling the skin of a wearer experiencing increased physical effort or being exposed to higher external temperature, the yarn i) comprising polyamide Nylon 66 and titanium oxide in an amount between 0.3 wt% to 3.0 wt%, ii) exhibiting low crimp characterized by a crimp modulus between 1% and 4%, and iii) having an oval cross-section characterized by an aspect ratio of between 3:7 and 6:7. i) comprising polyamide Nylon 66 and titanium oxide in an amount between 0.3 wt% to 3.0 wt%, ii) exhibiting low crimp characterized by a crimp modulus between 1% and 4%, and iii) having an oval cross-section characterized by an aspect ratio of between 3:7 and 6:7.
A high-energy-density battery pack device, the device comprising: a circuit board; at least two casing structures mounted on the circuit board; and at least two cells electrically connected in series or in parallel through the circuit board, wherein each respective cell of the at least two cells is positioned in a respective casing structure of the at least two casing structures, the casing structures being configured to hold the cells even during a thermal event, wherein the respective casing structure holds the respective cell off the circuit board with an air gap or a gap filled by ceramic material or foam material, and wherein the respective casing structure surrounds the respective cell with an opening on one end of the cell, wherein the opening points away from other cells. a circuit board; at least two casing structures mounted on the circuit board; and at least two cells electrically connected in series or in parallel through the circuit board, wherein each respective cell of the at least two cells is positioned in a respective casing structure of the at least two casing structures, the casing structures being configured to hold the cells even during a thermal event, wherein the respective casing structure holds the respective cell off the circuit board with an air gap or a gap filled by ceramic material or foam material, and wherein the respective casing structure surrounds the respective cell with an opening on one end of the cell, wherein the opening points away from other cells.
Circuit for operating light-emitting diodes having low flicker, wherein the circuit has n LED chains in an LED chain circuitry having a respective LED number N, wherein n is an integer and greater than 1 and N is an integer and greater than 0, a total supply voltage connection to which an AC voltage is able to be applied as time-dependent supply voltage, and a computation unit , wherein the computation unit is designed to use switches to connect the individual LED chains in stages in the event of rising supply voltage and to disconnect them in stages in the event of falling supply voltage, and the circuit has a valley-fill circuit , which below a cut-off supply voltage supplies at least one of the LED chains with a voltage and/or with a current and above a starting supply voltage is charged, wherein the circuit has a controllable and/or regulatable current sink connected in series with the n LED chains, characterized in that the computation unit is designed to impress an actuating signal onto the heat sink on the basis of a control signal so that the heat sink reduces a supply current of the LED chains by a charging current of the valley-fill circuit when the charging current is fed to the valley-fill circuit such that a total current of the circuit is present with a substantially sinusoidal profile.
A method for vaporizing a non-gaseous starting material, in which the starting material is brought into a vaporization chamber of a vaporizer , a vaporization body of the vaporizer supplies heat to the starting material so that it vaporizes to form a vapour, the vapour is transported by means of a conveying gas stream which is fed into the vaporization chamber through a gas supply line , the mass flow of which conveying gas stream being controlled by a first mass flow controller , through a conveying conduit passing a deposition surface of a QCM sensor which measures the concentration or the partial pressure of the vapour in the gas stream flowing through the conveying conduit in a manner such that the vapour condenses on the deposition surface at a rate which is a function of the partial pressure or the concentration, and the mass flow of the vapour through the conveying conduit is controlled by variation of the conveying gas stream against a nominal value, characterized in that a compensating gas stream is fed into the conveying conduit at a mixing point disposed between the vaporizer and sensor , the mass flow of which compensating gas stream being controlled by a second mass flow controller in a manner such that when the conveying gas stream varies, the gas stream flowing past the sensor remains constant and flows past the deposition surface at a constant flow rate.
A computer-implemented method for training a deep network, comprising: calculating an intermediate weight based on an existing quantized weight of a layer of the deep network and an existing quantized residual parameter; deriving an updated weight by quantizing the intermediate weight, wherein the updated weight is a quantized quantity; and generating an updated residual parameter using the intermediate weight and the updated weight, wherein generating the updated residual parameter comprises scaling an intermediate residual parameter with the updated weight and quantizing the scaled intermediate residual parameter to derive the updated residual parameter according to r t + 1 = q r w ̃ t + 1 − w t + 1 w t + 1 if w t + 1 ≠ 0 = 0 else with r t +1 denoting the updated residual parameter, w̃ t +1 denoting the intermediate weight, w t +1 denoting the updated weight and q r denoting a quantization, and wherein scaling the intermediate residual parameter comprises performing a bit shift operation on the intermediate residual. calculating an intermediate weight based on an existing quantized weight of a layer of the deep network and an existing quantized residual parameter; deriving an updated weight by quantizing the intermediate weight, wherein the updated weight is a quantized quantity; and generating an updated residual parameter using the intermediate weight and the updated weight, wherein generating the updated residual parameter comprises scaling an intermediate residual parameter with the updated weight and quantizing the scaled intermediate residual parameter to derive the updated residual parameter according to r t + 1 = q r w ̃ t + 1 − w t + 1 w t + 1 if w t + 1 ≠ 0 = 0 else with r t +1 denoting the updated residual parameter, w̃ t +1 denoting the intermediate weight, w t +1 denoting the updated weight and q r denoting a quantization, and wherein scaling the intermediate residual parameter comprises performing a bit shift operation on the intermediate residual.
A Fourier spectrometer, comprising: a Fabry-Perot interferometer to create a spatial domain interference pattern using visible or infrared input light; a detector positioned with respect to the Fabry-Perot interferometer to capture an image of the spatial domain interference pattern, the detector comprising a plurality of detection elements, and defining an optical axis that is orthogonal to the detector ; a relay optical system to relay the spatial domain interference pattern from the Fabry-Perot interferometer to the detector ; and a processor that is communicatively coupled to the detector , the processor being configured to convert the spatial domain interference pattern image from the spatial domain to the frequency domain using a frequency domain transform to determine information about the spectral content of the light, wherein the Fabry-Perot interferometer comprises first and second optical surfaces that are partially transmissive and partially reflective to the light, the first and second optical surfaces defining a resonant cavity therebetween, the distance between the first and second optical surfaces being spatially variable in a first transverse direction that is orthogonal to the optical axis. a Fabry-Perot interferometer to create a spatial domain interference pattern using visible or infrared input light; a detector positioned with respect to the Fabry-Perot interferometer to capture an image of the spatial domain interference pattern, the detector comprising a plurality of detection elements, and defining an optical axis that is orthogonal to the detector ; a relay optical system to relay the spatial domain interference pattern from the Fabry-Perot interferometer to the detector ; and a processor that is communicatively coupled to the detector , the processor being configured to convert the spatial domain interference pattern image from the spatial domain to the frequency domain using a frequency domain transform to determine information about the spectral content of the light, wherein the Fabry-Perot interferometer comprises first and second optical surfaces that are partially transmissive and partially reflective to the light, the first and second optical surfaces defining a resonant cavity therebetween, the distance between the first and second optical surfaces being spatially variable in a first transverse direction that is orthogonal to the optical axis.
A surgical instrument , comprising: (a) a body , wherein the body includes an electrical conductor, wherein the body defines a longitudinal axis; (b) an ultrasonic blade extending distally from the body, wherein the ultrasonic blade is operable to apply ultrasonic energy to tissue; (c) a clamp arm pivotably coupled with the body at a pivot assembly , wherein the clamp arm is operable to compress tissue against the ultrasonic blade, wherein the clamp arm comprises an electrode operable to apply RF energy to tissue, wherein the clamp arm is configured to be loaded onto and removed from the body at the pivot assembly along a path that is transverse to the longitudinal axis defined by the body; and (d) a resilient member located within the pivot assembly, wherein the resilient member is configured to provide electrical continuity between the electrode of the clamp arm and the electrical conductor of the body. (a) a body , wherein the body includes an electrical conductor, wherein the body defines a longitudinal axis; (b) an ultrasonic blade extending distally from the body, wherein the ultrasonic blade is operable to apply ultrasonic energy to tissue; (c) a clamp arm pivotably coupled with the body at a pivot assembly , wherein the clamp arm is operable to compress tissue against the ultrasonic blade, wherein the clamp arm comprises an electrode operable to apply RF energy to tissue, wherein the clamp arm is configured to be loaded onto and removed from the body at the pivot assembly along a path that is transverse to the longitudinal axis defined by the body; and (d) a resilient member located within the pivot assembly, wherein the resilient member is configured to provide electrical continuity between the electrode of the clamp arm and the electrical conductor of the body.
A telescopic fork mechanism, comprising a body structure and fork arm structures slidably mounted on the body structure ; wherein the body structure comprises a main body , and slide rail structures slidably mounted on the main body ; and the fork arm structures comprise at least two fork arm bodies slidably connected side by side on the slide rail structures , and a powered caster structure mounted on a bottom side of a rear end of each fork arm body and configured to drive each fork arm body to stretch and retract along the slide rail structure; and the powered caster structures on all the fork arm bodies are independent from each other; the slide rail structures comprise at least two slide rail bodies slidably mounted side by side on the main body , and each fork arm body is slidably mounted on a corresponding one of the slide rail bodies; the main body is provided with two sliding grooves side by side, one of the slide rail bodies is slidably mounted in each of the two sliding grooves, and a corresponding one of the fork arm bodies is slidably mounted on each slide rail body; characterized in that each sliding groove comprises a main groove body located in a middle portion of the main body , and an outlet groove body located at a rear end of the main body and communicated with the main groove body, and a bottom side and a rear side of the outlet groove body are communicated with outside; and when the fork arm structures are in a fully retracted state, the powered caster structure on a bottom side of a rear end of each fork arm structure is located in the outlet groove body and is in contact with a ground. the body structure comprises a main body , and slide rail structures slidably mounted on the main body ; and the fork arm structures comprise at least two fork arm bodies slidably connected side by side on the slide rail structures , and a powered caster structure mounted on a bottom side of a rear end of each fork arm body and configured to drive each fork arm body to stretch and retract along the slide rail structure; and the powered caster structures on all the fork arm bodies are independent from each other; the slide rail structures comprise at least two slide rail bodies slidably mounted side by side on the main body , and each fork arm body is slidably mounted on a corresponding one of the slide rail bodies; the main body is provided with two sliding grooves side by side, one of the slide rail bodies is slidably mounted in each of the two sliding grooves, and a corresponding one of the fork arm bodies is slidably mounted on each slide rail body; characterized in that each sliding groove comprises a main groove body located in a middle portion of the main body , and an outlet groove body located at a rear end of the main body and communicated with the main groove body, and a bottom side and a rear side of the outlet groove body are communicated with outside; and when the fork arm structures are in a fully retracted state, the powered caster structure on a bottom side of a rear end of each fork arm structure is located in the outlet groove body and is in contact with a ground.
Cooker comprising: - a chamber for cooking a grain-based foodstuff (A), in particular rice, - an analysis chamber , distinct from the cooking chamber, for receiving a sample of the foodstuff, - means for analysing at least one property of the foodstuff received in the analysis chamber, characterised by the fact that the analysis chamber is of a volume less than that of the cooking chamber. - a chamber for cooking a grain-based foodstuff (A), in particular rice, - an analysis chamber , distinct from the cooking chamber, for receiving a sample of the foodstuff, - means for analysing at least one property of the foodstuff received in the analysis chamber, characterised by the fact that the analysis chamber is of a volume less than that of the cooking chamber.