mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring for rope defects on a winch drum comprising: a plurality of rope depth sensors (112; 114; 116; 118) configured to measure rope depth in a plurality of locations along an axis of the winch drum; a rotation sensor configured to measure at least complete rotations of the winch drum; and a control unit communicatively coupled to the rope depth sensors and the rotation sensor; wherein the control unit provides an indication of rope non-uniformity when the winch drum has turned in a winding direction a sufficient number of turns for the rope to pass along the axis of the winch drum from one of the plurality of locations measured by one of the plurality of rope depth sensors to another one of the plurality of locations measured by another one of the plurality of rope depth sensors and the depth of rope on the winch drum is reported to be substantially unequal by the respective rope depth sensors. a plurality of rope depth sensors (112; 114; 116; 118) configured to measure rope depth in a plurality of locations along an axis of the winch drum; a rotation sensor configured to measure at least complete rotations of the winch drum; and a control unit communicatively coupled to the rope depth sensors and the rotation sensor; wherein the control unit provides an indication of rope non-uniformity when the winch drum has turned in a winding direction a sufficient number of turns for the rope to pass along the axis of the winch drum from one of the plurality of locations measured by one of the plurality of rope depth sensors to another one of the plurality of locations measured by another one of the plurality of rope depth sensors and the depth of rope on the winch drum is reported to be substantially unequal by the respective rope depth sensors.
A system for supplying power to a medical device worn by a user or implanted in the user, the system comprising: a base module configured to be operatively coupled with the medical device to supply electrical power to the medical device, the base module including a base module input connector; and a plurality of external battery modules, each of the external battery modules including: one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module; an input connector configured to receive electrical power from another of the plurality of external battery modules; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector. a base module configured to be operatively coupled with the medical device to supply electrical power to the medical device, the base module including a base module input connector; and a plurality of external battery modules, each of the external battery modules including: one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module; an input connector configured to receive electrical power from another of the plurality of external battery modules; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector. one or more battery cells configured to store electrical power; an output connector configured to output electrical power from the external battery module; an input connector configured to receive electrical power from another of the plurality of external battery modules; and a controller configured to control distribution of electrical power received via the input connector to charge the one or more battery cells and/or to be output via the output connector.
A test system for multi-fuel high-temperature operating fuel cells, which allows the direct use of carbon-base fuels, including anhydrous ones, without promoting or limiting carbon deposition in the gas inlet and outlet ducts, as well as in the flow channels anode, said system comprising: a furnace containing a reactor, the reactor consisting of at least two interconnection plates and at least one fuel cell located between two interconnection plates, wherein one of the interconnection plates, in contact with a cell, is a cathode side, which receives oxidizing gas, and the other interconnection plate, in contact with said fuel cell, is an anodic side, which receives combustible gas; The system is characterized in that it further comprises: a controlled gas feeding and exhaustion means connected to the reactor; wherein each plate further comprises a plurality of flow channels on its upper and lower surface, wherein the oxidizing gas and the combustible gas pass through the flow channels to contact the electrodes of the fuel cell; and wherein the top and interconnection base plates are made of a zirconium oxide or cerium oxide-based material doped with one or more of the oxides of yttria, scandia, calcia, gadolinia, samaria, alumina and cobaltite was used, with a total amount of dopants up to 20% by weight. a furnace containing a reactor, the reactor consisting of at least two interconnection plates and at least one fuel cell located between two interconnection plates, wherein one of the interconnection plates, in contact with a cell, is a cathode side, which receives oxidizing gas, and the other interconnection plate, in contact with said fuel cell, is an anodic side, which receives combustible gas; The system is characterized in that it further comprises: a controlled gas feeding and exhaustion means connected to the reactor; wherein each plate further comprises a plurality of flow channels on its upper and lower surface, wherein the oxidizing gas and the combustible gas pass through the flow channels to contact the electrodes of the fuel cell; and wherein the top and interconnection base plates are made of a zirconium oxide or cerium oxide-based material doped with one or more of the oxides of yttria, scandia, calcia, gadolinia, samaria, alumina and cobaltite was used, with a total amount of dopants up to 20% by weight. a controlled gas feeding and exhaustion means connected to the reactor; wherein each plate further comprises a plurality of flow channels on its upper and lower surface, wherein the oxidizing gas and the combustible gas pass through the flow channels to contact the electrodes of the fuel cell; and wherein the top and interconnection base plates are made of a zirconium oxide or cerium oxide-based material doped with one or more of the oxides of yttria, scandia, calcia, gadolinia, samaria, alumina and cobaltite was used, with a total amount of dopants up to 20% by weight.
An encoding device comprising: a deriving unit configured to derive a first reference value of a weighting factor based on fixed point precision representing fractional precision of the weighting factor that is used for making a motion-compensated prediction of a change in a pixel value by multiplying a reference image by the weighting factor; and an encoding unit configured to encode a first difference value that is a difference value between the weighting factor and the first reference value, and the fixed point precision, characterized in that the weighting factor is included in a first range of predetermined bit precision having the first reference value at approximate center, and the first difference value is included in a predetermined range of the predetermined bit precision having 0 at approximate center. a deriving unit configured to derive a first reference value of a weighting factor based on fixed point precision representing fractional precision of the weighting factor that is used for making a motion-compensated prediction of a change in a pixel value by multiplying a reference image by the weighting factor; and an encoding unit configured to encode a first difference value that is a difference value between the weighting factor and the first reference value, and the fixed point precision, characterized in that the weighting factor is included in a first range of predetermined bit precision having the first reference value at approximate center, and the first difference value is included in a predetermined range of the predetermined bit precision having 0 at approximate center.
A geopolymeric composite ultra high performance concrete (GUHPC) mix, comprising: (a) a binder comprising one or more selected from the group consisting of reactive aluminosilicate and reactive alkali-earth aluminosilicate; wherein the binder comprises 10 to 50 wt% of the GUHPC mix; (b) an alkali activator comprising an aqueous solution of metal hydroxide and metal silicate; (c) one or more aggregate; and (d) one or more fillers with a particle size up to 75 μm, wherein the combined filler content is up to 35 wt% of the GUHPC mix; wherein one type of the one or more fillers comprises filler which has a particle size of between 0.05 and 1 μm, and is selected from the group consisting of silica fume, precipitated silica, ultrafine calcium carbonate, micron alumina, and submicron particles of metal oxides; and wherein the other type of the one or more filler has a particle size of between 1 and 75 μm and is selected from the group consisting of crushed quartz, zeolite, and ground glass. (a) a binder comprising one or more selected from the group consisting of reactive aluminosilicate and reactive alkali-earth aluminosilicate; wherein the binder comprises 10 to 50 wt% of the GUHPC mix; (b) an alkali activator comprising an aqueous solution of metal hydroxide and metal silicate; (c) one or more aggregate; and (d) one or more fillers with a particle size up to 75 μm, wherein the combined filler content is up to 35 wt% of the GUHPC mix;
Method of controlling the process conditions, in particular the temperature, in a reactor of a plant into which, in particular, granular material is introduced and transported through a conveying line to the reactor, the material quantity transported in the conveying line being determined and being used as control variable and/or disturbance variable for controlling the process conditions, in particular the temperature, characterized in that the material quantity of the material fed to the reactor is determined by measuring the pressure and/or the pressure loss in a conveying line upstream of the reactor in an airlift.
A portable illumination apparatus for facilitating visualizations of tissue, the apparatus comprising: a portable housing defining an aperture extending through the portable housing, wherein the portable housing is for detachable attachment proximal to an image capturing unit; an emission filter covering the aperture, wherein the emission filter is selected from: a long pass filter with a cut-on wavelength of 450±25 nm; or a bandpass filter allowing transmission through the emission filter in the 425-1000 nm wavelength range and having a lower cut-on wavelength of 450±25 nm; and an illumination unit comprising one or more narrow band light sources positioned around the aperture and configured to shine m flashes at n predetermined wavelengths, wherein; n/4 ≤ m ≤ n; each of the m flashes has a duration equal to xT, wherein x is a whole number and T is equal to 50 ms; and each of the m flashes are performed consecutively. a portable housing defining an aperture extending through the portable housing, wherein the portable housing is for detachable attachment proximal to an image capturing unit; an emission filter covering the aperture, wherein the emission filter is selected from: a long pass filter with a cut-on wavelength of 450±25 nm; or a bandpass filter allowing transmission through the emission filter in the 425-1000 nm wavelength range and having a lower cut-on wavelength of 450±25 nm; and a long pass filter with a cut-on wavelength of 450±25 nm; or a bandpass filter allowing transmission through the emission filter in the 425-1000 nm wavelength range and having a lower cut-on wavelength of 450±25 nm; and an illumination unit comprising one or more narrow band light sources positioned around the aperture and configured to shine m flashes at n predetermined wavelengths, wherein; n/4 ≤ m ≤ n; each of the m flashes has a duration equal to xT, wherein x is a whole number and T is equal to 50 ms; and each of the m flashes are performed consecutively. n/4 ≤ m ≤ n; each of the m flashes has a duration equal to xT, wherein x is a whole number and T is equal to 50 ms; and each of the m flashes are performed consecutively.
A power controllable wireless communication device comprising: a variable gain amplifier having a gain that can be controlled based on a gain control signal; a reference power generation circuit configured to generate first reference power and second reference power differing from the first reference power; a sensor circuit selectively supplied with power of a high frequency signal output from the variable gain amplifier, and the first reference power and the second reference power generated by the reference power generation circuit; and a control circuit configured to generate the gain control signal based on a sensor output from the sensor circuit, characterized in that when controlling power, the control circuit generates the gain control signal based on a ratio of a first difference and a second difference, the first difference is a difference between a third sensor output corresponding to the power of the high frequency signal and a first sensor output corresponding to the first reference power, the second difference is a difference between a second sensor output corresponding to the second reference power and the first sensor output corresponding to the first reference power. a variable gain amplifier having a gain that can be controlled based on a gain control signal; a reference power generation circuit configured to generate first reference power and second reference power differing from the first reference power; a sensor circuit selectively supplied with power of a high frequency signal output from the variable gain amplifier, and the first reference power and the second reference power generated by the reference power generation circuit; and a control circuit configured to generate the gain control signal based on a sensor output from the sensor circuit, characterized in that when controlling power, the control circuit generates the gain control signal based on a ratio of a first difference and a second difference, the first difference is a difference between a third sensor output corresponding to the power of the high frequency signal and a first sensor output corresponding to the first reference power, the second difference is a difference between a second sensor output corresponding to the second reference power and the first sensor output corresponding to the first reference power.
Container treatment machine for treating containers, such as bottles, cans or the like, the container treatment machine comprising a treatment unit for treating containers and container receptacles in which containers can be received so as to be rotatable about an axis, the container treatment machine comprising a camera for capturing an image of a container transported in a container receptacle upstream of the treatment unit and an alignment module, wherein the alignment module is configured to rotate a container to a target position by controlling the container receptacle, characterized in that the alignment module comprises a neural network which is configured to determine a necessary rotation of the container from its current position to the target position by processing the image of a container transported in a container receptacle upstream of the treatment unit, the alignment module is configured to control the rotation of the container receptacle depending on the determined rotation and the neural network is adapted to learn current positions of containers in relation to a target position from images acquired during operation of the container treatment machine.
A method of transmitting data at a desired data rate from a source (IC1, IC2,...) to at least one sink (IC1, IC2,...) the method comprising: defining a channel, by identifying the source and the at least one sink, the defined channel having a channel rate; defining a transport profile, wherein said transport profile indicates a flow control requirement for said data; transmitting said data over a synchronous TDMA bus from said source in at least one data time slot; if indicated by said transport profile, transmitting flow control information from said source over said bus in at least one flow control time slot associated with said data time slot; wherein the step of defining the transport profile comprises selecting a transport profile from a plurality of predefined transport profiles; and wherein one of said predefined transport profiles is a profile that applies when the source is to push data to the at least one sink, and the desired data rate is less than the channel rate. defining a channel, by identifying the source and the at least one sink, the defined channel having a channel rate; defining a transport profile, wherein said transport profile indicates a flow control requirement for said data; transmitting said data over a synchronous TDMA bus from said source in at least one data time slot; if indicated by said transport profile, transmitting flow control information from said source over said bus in at least one flow control time slot associated with said data time slot; wherein the step of defining the transport profile comprises selecting a transport profile from a plurality of predefined transport profiles; and wherein one of said predefined transport profiles is a profile that applies when the source is to push data to the at least one sink, and the desired data rate is less than the channel rate.
An image processing device, comprising: an intra prediction unit configured to perform matrix intra prediction, MIP, within the framework of the Versatile Video Coding video codec standardization using a shift amount sW set to a fixed value, wherein the fixed value is a value that is fixed regardless of the mode number of the matrix intra prediction, to generate a predicted image of a current prediction block, when the matrix intra prediction which is intra prediction using a matrix operation is performed on the current prediction block to be encoded; and an encoding unit configured to encode the current prediction block using the predicted image generated by the intra prediction unit. an intra prediction unit configured to perform matrix intra prediction, MIP, within the framework of the Versatile Video Coding video codec standardization using a shift amount sW set to a fixed value, wherein the fixed value is a value that is fixed regardless of the mode number of the matrix intra prediction, to generate a predicted image of a current prediction block, when the matrix intra prediction which is intra prediction using a matrix operation is performed on the current prediction block to be encoded; and an encoding unit configured to encode the current prediction block using the predicted image generated by the intra prediction unit.
A method for a computer system comprising: determining a plurality of lower sampling resolution images of a sequence of scenes, wherein a sampling resolution of the lower sampling resolution images corresponds to a number of sample rays cast per pixel, wherein the sequence of scenes includes a first scene and a second scene, wherein the first scene is associated with a first scene descriptor and wherein the second scene is associated with a second scene descriptor; determining, by using the lower sampling resolution images, a plurality of primary intermediate rendering data modes and associated weights; determining a first higher sampling resolution image of the first scene using the first scene descriptor, the plurality of primary intermediate rendering data modes and associated weights and the plurality of lower sampling resolution images, the first higher sampling resolution image having a higher resolution than the plurality of lower sampling resolution images; and determining a second higher sampling resolution image of the second scene using the second scene descriptor, the plurality of primary intermediate rendering data modes and associated weights, and the plurality of lower sampling resolution images. determining a plurality of lower sampling resolution images of a sequence of scenes, wherein a sampling resolution of the lower sampling resolution images corresponds to a number of sample rays cast per pixel, wherein the sequence of scenes includes a first scene and a second scene, wherein the first scene is associated with a first scene descriptor and wherein the second scene is associated with a second scene descriptor; determining, by using the lower sampling resolution images, a plurality of primary intermediate rendering data modes and associated weights; determining a first higher sampling resolution image of the first scene using the first scene descriptor, the plurality of primary intermediate rendering data modes and associated weights and the plurality of lower sampling resolution images, the first higher sampling resolution image having a higher resolution than the plurality of lower sampling resolution images; and determining a second higher sampling resolution image of the second scene using the second scene descriptor, the plurality of primary intermediate rendering data modes and associated weights, and the plurality of lower sampling resolution images.