mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-well plate comprising a support the upper surface of which is at least partially covered with a continuous layer of a hydrogel which has a stiffness of from 0.05 to 100 kPa, as measured by atomic force microscopy, the said continuous layer being in contact with the lower surface of a bottomless multi-well plate , the said support , the said continuous layer , and the said bottomless multi-well plate being adhered by means of an adhesive , characterised in that the adhesive extends from at least certain portions of the lower surface of the bottomless multi-well plate up to certain portions of the upper surface of the support by passing through the continuous layer , the bottom of each well of the multi-well plate being entirely surrounded by the said at least certain portions of the lower surface of the bottomless multi-well plate .
Extracorporeal blood treatment device comprising a hydraulic system (II) comprising a plurality of flow paths, the blood treatment device comprising a control unit providing an operating mode for disinfecting the hydraulic system (II) with a liquid that can be supplied via one of the flow paths, the hydraulic system (II) comprising a multi-switch valve device having an inlet for the liquid for disinfecting the hydraulic system and a plurality of outlets , the inlet of the valve device being in fluid communication with the flow path, via which liquid for disinfecting the hydraulic system can be supplied, and the outlets of the valve device being each in fluid communication with another flow path of the hydraulic system, in a switching position of the valve device the inlet being connected to a plurality of outlets , and the hydraulic system (II) having a dialysate supply conduit leading to a dialyzer and a dialysate discharge conduit leading away from the dialyzer, characterized in that one of the outlets of the valve device is connected via a bypass conduit to the dialysate supply conduit , and/or the hydraulic system (II) comprises a filter for increasing the degree of purity of the dialysate, which is arranged inside one of the flow paths of the hydraulic system, wherein one of the outlets of the valve device is connected via a bypass conduit to a conduit leading to the filter . the hydraulic system (II) comprising a multi-switch valve device having an inlet for the liquid for disinfecting the hydraulic system and a plurality of outlets , the inlet of the valve device being in fluid communication with the flow path, via which liquid for disinfecting the hydraulic system can be supplied, and the outlets of the valve device being each in fluid communication with another flow path of the hydraulic system, in a switching position of the valve device the inlet being connected to a plurality of outlets , and the hydraulic system (II) having a dialysate supply conduit leading to a dialyzer and a dialysate discharge conduit leading away from the dialyzer, characterized in that one of the outlets of the valve device is connected via a bypass conduit to the dialysate supply conduit , and/or the hydraulic system (II) comprises a filter for increasing the degree of purity of the dialysate, which is arranged inside one of the flow paths of the hydraulic system, wherein one of the outlets of the valve device is connected via a bypass conduit to a conduit leading to the filter .
A method of leveling a radial stacking conveyor having radial travel wheels connected on generally opposing sides of a base frame , the base frame comprising a first actuator associated with a first set of radial travel wheels on a first side of the base frame , and a second actuator associated with a second set of radial travel wheels connected on a second side of the base frame , the first and second actuators able to adjust a vertical spacing between the radial travel wheels and the base frame , the method comprising: providing a level sensor on the conveyor; sensing a signal from the level sensor indicating that the base frame is not level; performing a first adjustment step comprising raising a low side of the base frame ; sensing the signal from the level sensor to determine if the first adjustment step leveled the base frame ; and performing a second adjustment step if the first adjustment step did not level the base frame , the second adjustment step comprising lowering a high side of the base frame towards level. sensing a signal from the level sensor indicating that the base frame is not level; performing a first adjustment step comprising raising a low side of the base frame ; sensing the signal from the level sensor to determine if the first adjustment step leveled the base frame ; and performing a second adjustment step if the first adjustment step did not level the base frame , the second adjustment step comprising lowering a high side of the base frame towards level.
A discharge protection circuit , comprising: a switch (SW) having a capacitive coupling between a gate and a drain of the switch, such that, in use, a capacitively coupled current flows between the gate and the drain; a gate network comprising at least the gate of the switch, a gate control element and a resistor connected between the gate and the gate control element; an electrostatic discharge, ESD, rail ; wherein the ESD rail is coupled to the gate either directly or via a diode , such that, in use, at least a part of an electrostatic discharge current is sunk via the capacitive coupling and the gate network; wherein the ESD rail is coupled to a ground via an ESD protection element . a switch (SW) having a capacitive coupling between a gate and a drain of the switch, such that, in use, a capacitively coupled current flows between the gate and the drain; a gate network comprising at least the gate of the switch, a gate control element and a resistor connected between the gate and the gate control element; an electrostatic discharge, ESD, rail ; wherein the ESD rail is coupled to the gate either directly or via a diode , such that, in use, at least a part of an electrostatic discharge current is sunk via the capacitive coupling and the gate network; wherein the ESD rail is coupled to a ground via an ESD protection element .
A method for detecting adsorption differences, deposition and/or retention areas in containers, wherein a liquid comprising a dye is introduced into a container, wherein the container is an at least partially light-translucent and/or transparent plastic reactor, non-metallic fluid system, disposable assembly and/or disposable structure, and wherein the container with the liquid comprised therein, in particular from the outside, is irradiated with light, in particular UV light, in particular UV-A light, wherein the differences resulting from the different distribution of the dye inside the container are observed, analysed and/or recorded from the outside in the optical view of the container with the liquid comprised therein, and the dye is introduced into the container dissolved in the liquid, wherein (i) the dye is thixotropic and/or (ii) is bound to at least one molecule, and the method is a method for detecting adsorption differences, deposition and/or retention areas of the at least one molecule in the container. (i) the dye is thixotropic and/or (ii) is bound to at least one molecule, and the method is a method for detecting adsorption differences, deposition and/or retention areas of the at least one molecule in the container.
An apparatus comprising: processing circuitry to perform vector processing operations on vectors comprising a plurality of data elements; and an instruction decoder to decode program instructions to control the processing circuitry to perform the vector processing operations; wherein in response to a replicate partition instruction specifying partition information defining positions of a plurality of variable size partitions within a result vector, each partition comprising at least one data element of the result vector and at least one partition comprising a plurality of adjacent data elements of the result vector, the instruction decoder is configured to control the processing circuitry to generate the result vector in which each partition having more than one data element comprises data values of a sequence of data elements of a source vector starting or ending at a selected data element position or an incrementing sequence of element indices starting or ending with the element index indicating said selected data element position, wherein the encoding of the replicate partition instruction constrains the selected data element position to be the same for each of the partitions. processing circuitry to perform vector processing operations on vectors comprising a plurality of data elements; and an instruction decoder to decode program instructions to control the processing circuitry to perform the vector processing operations; wherein in response to a replicate partition instruction specifying partition information defining positions of a plurality of variable size partitions within a result vector, each partition comprising at least one data element of the result vector and at least one partition comprising a plurality of adjacent data elements of the result vector, the instruction decoder is configured to control the processing circuitry to generate the result vector in which each partition having more than one data element comprises data values of a sequence of data elements of a source vector starting or ending at a selected data element position or an incrementing sequence of element indices starting or ending with the element index indicating said selected data element position, wherein the encoding of the replicate partition instruction constrains the selected data element position to be the same for each of the partitions.
A power module comprising: a boost inductor ; a current sensor 2. aligned to sense a current flowing through the boost inductor; a pair of transistors 2. , wherein the pair of transistors comprises a first transistor aligned in series between an output of the boost inductor and at least one load and a second transistor aligned in series between the output of the boost inductor and ground; a gate driver wherein the gate driver is configured to switch on or off each of the transistors; an output capacitor in parallel with the at least one load; a first isolation switch arranged to isolate the boost inductor from a power source when open; a second isolation switch between the output capacitor connection to the at least one load and the at least one load: an error amplifier , wherein a first input of the error amplifier is a reference voltage and a second input of the error amplifier is a voltage across the output capacitor, and wherein an output of the error amplifier is a voltage signal corresponding to a reference current; and a hysteresis controller for controlling operations of the gate driver, wherein a first input of the hysteresis controller is the voltage signal corresponding to the reference current of the output of the error amplifier and a second input of the hysteresis controller is a voltage signal corresponding to the current flowing through the boost inductor sensed by the current sensor, and wherein an output of the hysteresis controller is a control signal to the gate driver for switching off or on at least one of the pair of transistors. a boost inductor ; a current sensor 2. aligned to sense a current flowing through the boost inductor; a pair of transistors 2. , wherein the pair of transistors comprises a first transistor aligned in series between an output of the boost inductor and at least one load and a second transistor aligned in series between the output of the boost inductor and ground; a gate driver wherein the gate driver is configured to switch on or off each of the transistors; an output capacitor in parallel with the at least one load; a first isolation switch arranged to isolate the boost inductor from a power source when open; a second isolation switch between the output capacitor connection to the at least one load and the at least one load: an error amplifier , wherein a first input of the error amplifier is a reference voltage and a second input of the error amplifier is a voltage across the output capacitor, and wherein an output of the error amplifier is a voltage signal corresponding to a reference current; and a hysteresis controller for controlling operations of the gate driver, wherein a first input of the hysteresis controller is the voltage signal corresponding to the reference current of the output of the error amplifier and a second input of the hysteresis controller is a voltage signal corresponding to the current flowing through the boost inductor sensed by the current sensor, and wherein an output of the hysteresis controller is a control signal to the gate driver for switching off or on at least one of the pair of transistors.
A method for a first station, STA, to communicate with a second STA in a wireless local area network, WLAN, the method comprising: receiving, by the first STA from the second STA, resource allocation information for a plurality of STAs, including the first STA, communicating with the second STA using orthogonal frequency divisional multiple access, OFDMA, or multi-user multiple input multiple output, MU-MIMO; and receiving, by the first STA from the second STA, data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. receiving, by the first STA from the second STA, resource allocation information for a plurality of STAs, including the first STA, communicating with the second STA using orthogonal frequency divisional multiple access, OFDMA, or multi-user multiple input multiple output, MU-MIMO; and receiving, by the first STA from the second STA, data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated.
Positive electrode active material/graphene composite particles formed by formation of positive electrode active material particles/matrix containing graphene composite, wherein the mass ratio of carbon in the composite particle is not less than 2% and not more than 20%, wherein the positive electrode active material particle is an olivine-based active material particle or a layered oxide active material particle, wherein the layered oxide active material is selected from the group consisting of LiCoO 2 , LiNiO 2 , Li(Ni x Co y )O 2 wherein x + y = 1, Li(Ni x Co y Al z )O 2 wherein x + y + z = 1, Li(Ni x Mn y Co z )O 2 wherein x + y + z = 1, Li(Ni x Mn y )O 2 wherein x + y = 1, and Li 2 MnO 3 -Li(Ni x Mn y Co z )O 2 wherein x + y + z = 1, characterized by a ratio of functionalization being not less than 0.15 and not more than 0.80, the ratio of functionalization being determined, based on measurements by X-ray photoelectron spectroscopic measurement, from the following equation: Ratio of functionalization = peak area based on C-O single bond + peak area based on C=O double bond + peak area based on COO bond / peak area based on C-C , C=C and C-H bonds and by an uneven distribution of the graphene at the material surface being 1.5 or more and 7 or less, wherein the uneven distribution of the graphene at the material surface can be quantified by a value obtained by dividing a ratio of a carbon element at the material surface by a mass ratio of graphene in the whole material, as measured by X-ray photoelectron spectroscopy, where excited X-ray is monochromatic Al K α1 and K α2 lines at 1486.6 eV, the diameter of X-ray is 200 μm, and a photoelectron escape angle is 45°.
A module for analyzing fluid consumption at the outlet of a valve , comprising: a. a rotary operating member designed to be mounted on the valve and able to control fluid flow out of the valve, b. a vibration sensor arranged to measure vibrations (X, Y, Z) of the operating member, c. a rotation sensor arranged to measure a rotation (R) of the operating member, characterized in that the module comprises: d. a control unit arranged to detect a fluid flow at the valve outlet from the vibrations of the operating member measured by the vibration sensor and to determine a flow rate (Cmin, Cmax) of this fluid flow from the vibrations of the operating member measured by the vibration sensor and the rotation of the operating member measured by the rotation sensor. a. a rotary operating member designed to be mounted on the valve and able to control fluid flow out of the valve, b. a vibration sensor arranged to measure vibrations (X, Y, Z) of the operating member, c. a rotation sensor arranged to measure a rotation (R) of the operating member, characterized in that the module comprises: d. a control unit arranged to detect a fluid flow at the valve outlet from the vibrations of the operating member measured by the vibration sensor and to determine a flow rate (Cmin, Cmax) of this fluid flow from the vibrations of the operating member measured by the vibration sensor and the rotation of the operating member measured by the rotation sensor.
A mushroom foundation for overhead power line pylons, having a mushroom base and a mushroom shaft , wherein the mushroom base has a mushroom base plate with stiffening elements and a central shaft joint for receiving a lower end of the mushroom shaft , and wherein the mushroom shaft is connected at an upper end to a connecting element which is configured to be connectable to the overhead power line pylon, characterized in that the lower end of the mushroom shaft is screwed to the shaft joint , wherein the shaft joint is formed of two L-sections canted perpendicularly to the mushroom base plate , and the mushroom shaft , correspondingly to the L-sections of the shaft joint , is configured as a cruciform section, and the cruciform section of the mushroom shaft is formed of two L-sections welded together at their corners.
Mower having a mower-carrying framework , having a plurality of mowing mechanisms , which are accommodated on the mower-carrying framework , having a protective device , which has protective coverings and protective aprons acting on the protective coverings, wherein lateral protective coverings , together with lateral protective aprons , can be displaced in relation to a central protective covering , between an operating position and a transportation position, about an axis which extends in an advancement direction or mowing direction or more or less in an advancement direction or mowing direction, characterized by bracing devices , via which it is possible to brace the lateral protective aprons in the transportation position of the respective lateral protective covering , in order to avoid flapping of the lateral protective aprons in the transportation position during travel, wherein the respective bracing device has a tension-spring-like expander device , which, by way of a first end, is fixed permanently on the central protective covering or a central protective bracket , or on the mower-carrying framework , and, by way of a second end, can then be attached to the respective lateral protective apron when the respective lateral protective covering assumes the transportation position, or the respective bracing device has a tensile-force-transmission element and a bracing element , which is fastened on the respective lateral protective apron and can be swung relative to the respective lateral protective covering .
A vacuum variable capacitor adjustable between a minimum capacitance value and a maximum capacitance value, the vacuum variable capacitor comprising: a first vacuum enclosure containing capacitor electrodes separated by a vacuum dielectric , the wall of the first vacuum enclosure comprising a first deformable region , hereafter referred to as first bellows, for transferring mechanical movement between a drive means (34; 40) and a mobile one of the capacitor electrodes inside the first vacuum enclosure , a second enclosure , referred to hereafter as the pre-vacuum enclosure, containing a gas at a predetermined pressure, wherein the first bellows separates the gas in the pre-vacuum enclosure from the vacuum dielectric in the first vacuum enclosure , and characterized in that the drive means (34; 40) is disposed outside the first and the second enclosure (2; 21) of the vacuum variable capacitor and comprises a contact free transfer of movement to a driven means (9, 42; 28, 29) inside an enclosure (2; 21) of the vacuum variable capacitor . a first vacuum enclosure containing capacitor electrodes separated by a vacuum dielectric , the wall of the first vacuum enclosure comprising a first deformable region , hereafter referred to as first bellows, for transferring mechanical movement between a drive means (34; 40) and a mobile one of the capacitor electrodes inside the first vacuum enclosure , a second enclosure , referred to hereafter as the pre-vacuum enclosure, containing a gas at a predetermined pressure, wherein the first bellows separates the gas in the pre-vacuum enclosure from the vacuum dielectric in the first vacuum enclosure , and characterized in that the drive means (34; 40) is disposed outside the first and the second enclosure (2; 21) of the vacuum variable capacitor and comprises a contact free transfer of movement to a driven means (9, 42; 28, 29) inside an enclosure (2; 21) of the vacuum variable capacitor .