mhurhangee/ep-ind-claims huggingface dataset:
A terminal filter device for reducing microbiological contaminants, in particular bacteria and/or pyrogens, in an aqueous medium, in particular in water, comprising a housing with an entry end for introducing the aqueous medium into the filter device and an exit end for discharging the aqueous medium from the filter device, wherein hollow fiber membranes are arranged in the housing, each having an end facing the entry end and an end facing the exit end, wherein the ends of the hollow fiber membranes facing the entry end are closed, and the hollow fiber membranes are embedded with their end facing the exit end in a casting compound in such a fluid-tight manner that they pass through the casting compound and are open at this end, wherein the housing, the casting compound and the hollow fiber membranes end in a flush manner with each other at the exit end of the filter device, whereby the direct exit of the aqueous medium of the filter device is formed; and the porous hollow fiber membranes, preferably with a pore size of 0.01-2 μm and a preferably parallel arrangement to the longitudinal axis of the housing, comprise at least a first group of hydrophilic hollow fiber membranes, characterized in that the hydrophilic hollow fiber membranes are functionalized for binding microbiological contaminants by a cationic modification; and a removable closing cap at the entry end and a corresponding connection to the housing, preferably a screw cap with screw connection, is provided and adapted to close the filter device from the environment, and a removable closing cap at the exit end and a corresponding connection to the housing, preferably a plug-in protective sleeve with plug-in connection, is provided and adapted to close the filter device from the environment, wherein the inside of the closing cap at the entry end and the inside of the closing cap at the exit end has been treated with a biocide and/or contains a biocide in depot form. the housing, the casting compound and the hollow fiber membranes end in a flush manner with each other at the exit end of the filter device, whereby the direct exit of the aqueous medium of the filter device is formed; and the porous hollow fiber membranes, preferably with a pore size of 0.01-2 μm and a preferably parallel arrangement to the longitudinal axis of the housing, comprise at least a first group of hydrophilic hollow fiber membranes, characterized in that the hydrophilic hollow fiber membranes are functionalized for binding microbiological contaminants by a cationic modification; and a removable closing cap at the entry end and a corresponding connection to the housing, preferably a screw cap with screw connection, is provided and adapted to close the filter device from the environment, and a removable closing cap at the exit end and a corresponding connection to the housing, preferably a plug-in protective sleeve with plug-in connection, is provided and adapted to close the filter device from the environment, wherein the inside of the closing cap at the entry end and the inside of the closing cap at the exit end has been treated with a biocide and/or contains a biocide in depot form.
A system comprising: a feature detection module to: determine a current sum of variances metric representing a sum of variances of pixel blocks of a region of a current image of a video signal; determine a previous sum of variances metric representing a weighted average of corresponding sum of variances metrics of pixel blocks of corresponding regions of a sliding window of preceding images (504; 506; 508), the sum of variances metric for the image most proximate the current image being most heavily weighted; determine whether the image represents a scene change based on the difference between the current sum of variances metric and the previous sum of variances metric; and a transcoder to transcode the input video signal to generate a transcoded video signal, the transcoder to perform at least one transcoding operation based on whether the image was determined to represent a scene change. a feature detection module to: determine a current sum of variances metric representing a sum of variances of pixel blocks of a region of a current image of a video signal; determine a previous sum of variances metric representing a weighted average of corresponding sum of variances metrics of pixel blocks of corresponding regions of a sliding window of preceding images (504; 506; 508), the sum of variances metric for the image most proximate the current image being most heavily weighted; determine whether the image represents a scene change based on the difference between the current sum of variances metric and the previous sum of variances metric; and a transcoder to transcode the input video signal to generate a transcoded video signal, the transcoder to perform at least one transcoding operation based on whether the image was determined to represent a scene change. determine a current sum of variances metric representing a sum of variances of pixel blocks of a region of a current image of a video signal; determine a previous sum of variances metric representing a weighted average of corresponding sum of variances metrics of pixel blocks of corresponding regions of a sliding window of preceding images (504; 506; 508), the sum of variances metric for the image most proximate the current image being most heavily weighted; determine whether the image represents a scene change based on the difference between the current sum of variances metric and the previous sum of variances metric; and a transcoder to transcode the input video signal to generate a transcoded video signal, the transcoder to perform at least one transcoding operation based on whether the image was determined to represent a scene change.
A method comprising receiving, by a base station from a wireless device, a message comprising a first sequence of a plurality of parameters, characterized by a first parameter in the first sequence indicating whether a V2X transmission configuration is supported in a first band combination, wherein the first band combination comprises a third sequence of a plurality of band identifiers, a band identifier of the third sequence indicates a specific band, and the first band combination is in a second sequence of a plurality of band combinations associated with the wireless device, and wherein an index of the first parameter in the first sequence identifies the first band combination in the second sequence; and transmitting, based on the message, a second message comprising configuration parameters of at least one cell for V2X communications, wherein the at least one cell operates in one of the plurality of band combinations that supports the V2X transmission configuration. receiving, by a base station from a wireless device, a message comprising a first sequence of a plurality of parameters, characterized by a first parameter in the first sequence indicating whether a V2X transmission configuration is supported in a first band combination, wherein the first band combination comprises a third sequence of a plurality of band identifiers, a band identifier of the third sequence indicates a specific band, and the first band combination is in a second sequence of a plurality of band combinations associated with the wireless device, and wherein an index of the first parameter in the first sequence identifies the first band combination in the second sequence; and transmitting, based on the message, a second message comprising configuration parameters of at least one cell for V2X communications, wherein the at least one cell operates in one of the plurality of band combinations that supports the V2X transmission configuration.
A magnetic component (100, 200, 300) comprising: at least one conductive wire coil including a first lead, a second lead, and a plurality of turns between the first and second lead (110, 112); and at least one insulating, dielectric, and magnetic sheet (104, 106) comprising a composite mixture of soft magnetic powder particles with no shape anisotropy and a binder material, the composite being provided as a freestanding, solid sheet layer; wherein the at least one insulating, dielectric, and magnetic sheet (104,106) is laminated to the coil, thereby defining a monolithic core structure embedding the at least one coil. at least one conductive wire coil including a first lead, a second lead, and a plurality of turns between the first and second lead (110, 112); and at least one insulating, dielectric, and magnetic sheet (104, 106) comprising a composite mixture of soft magnetic powder particles with no shape anisotropy and a binder material, the composite being provided as a freestanding, solid sheet layer;
A method of controlling a vehicle-trailer unit comprising: recording with an electronic control unit for a trailer assist system a plurality of maneuvers of the vehicle-trailer unit as each maneuver is executed in an original direction of travel; retrieving the recorded plurality of maneuvers in response to an initiating of a tight spot reversal feature for the trailer assist system; and instructing vehicle systems to perform the retrieved recorded plurality of maneuvers in the reverse order and direction of travel in which they were recorded until the trailer assist system determines that the vehicle-trailer unit is in a situation where continued travel in the original direction is possible. recording with an electronic control unit for a trailer assist system a plurality of maneuvers of the vehicle-trailer unit as each maneuver is executed in an original direction of travel; retrieving the recorded plurality of maneuvers in response to an initiating of a tight spot reversal feature for the trailer assist system; and instructing vehicle systems to perform the retrieved recorded plurality of maneuvers in the reverse order and direction of travel in which they were recorded until the trailer assist system determines that the vehicle-trailer unit is in a situation where continued travel in the original direction is possible.
A method for controlling or regulating, respectively, a production process in the production of printed products of a web-shaped or sheet-shaped printed material in a printing system, wherein the method has the following steps: printing a code (4a, 4b), in particular a matrix code, with production information included therein for the control or regulation, respectively, and/or monitoring or control, respectively, of the production process onto the printing material; wherein at least one code (4a, 4b), which includes production information about several different signatures, is printed onto at least two signatures (2a, 2b, 2c), which are to be separated from the web-shaped printing material by means of cross-cutting, or onto at least two signatures (2a, 2b, 2c) made of a sheet-shaped printing material; capturing the code (4a, 4b) by means of a capturing device; evaluating the production information included in the code (4a, 4b) by means of an evaluation unit; in the event of a non-decodability of the evaluated code (4a, 4b), utilizing the information from at least one preceding and/or at least one following code (4a, 4b); performing the control or regulating actions, respectively, and/or monitoring or control functions, respectively, on the basis of the determined production information by the printing system. printing a code (4a, 4b), in particular a matrix code, with production information included therein for the control or regulation, respectively, and/or monitoring or control, respectively, of the production process onto the printing material; wherein at least one code (4a, 4b), which includes production information about several different signatures, is printed onto at least two signatures (2a, 2b, 2c), which are to be separated from the web-shaped printing material by means of cross-cutting, or onto at least two signatures (2a, 2b, 2c) made of a sheet-shaped printing material; capturing the code (4a, 4b) by means of a capturing device; evaluating the production information included in the code (4a, 4b) by means of an evaluation unit; in the event of a non-decodability of the evaluated code (4a, 4b), utilizing the information from at least one preceding and/or at least one following code (4a, 4b); performing the control or regulating actions, respectively, and/or monitoring or control functions, respectively, on the basis of the determined production information by the printing system.
A head immobilization device for use in the medical field, comprising a head fixation element, comprising a mask element and an open frame element, said open frame element comprising a base portion and two legs, each having an end portion, and a support plate structure, comprising at least one base fixture element for fixing the base portion and at least two leg fixture elements for fixing the legs, whereby said head fixation element can be releasably connected with the support plate structure, characterized in that the at least two leg fixture elements are designed to cooperate with the end portions of the legs such as to bias the head fixation element in the direction of the at least one base fixture element.
The preparation method of a high strength polyethylene fiber with a tensile strength ranging from 8.83 to 44.15 cN/dtex (10 to 50 g/d) which is characterized by adopting different weight ratio of UHMWPE and low density PE as raw materials in a blend-melt-spinning method, wherein the said weight ratio of low density PE and UHMWPE is from 2:1 to 10:1, the number-average molecular weight of low density PE is between 25,000 and 500,000 and the number-average molecular weight of UHMWPE is from 1,200,000 to 7,000,000.
Method of controlling a wind turbine comprising a nacelle, a rotor, a rotating hub, a first rotor blade and at least a second rotor blade, both rotor blades (201, 202) being mounted to the hub, wherein the method comprises the steps of - measuring the strain in the first rotor blade in a first angular position within the rotor plane by means of a strain measurement device attached to the first rotor blade, and - changing, based on the measured strain, the orientation of the second rotor blade with regard to the direction of the impinging airflow such that the fatigue damage which is generated by the interaction between the second rotor blade and the airflow impinging on the second rotor blade is reduced, - wherein a plurality of strain measurement devices are arranged along the span of the first rotor blade between the root portion of the first rotor blade and the tip portion of the first rotor blade, - wherein the method comprises the further step of determining the radial distribution and the intensity of the strain. - measuring the strain in the first rotor blade in a first angular position within the rotor plane by means of a strain measurement device attached to the first rotor blade, and - changing, based on the measured strain, the orientation of the second rotor blade with regard to the direction of the impinging airflow such that the fatigue damage which is generated by the interaction between the second rotor blade and the airflow impinging on the second rotor blade is reduced, - wherein a plurality of strain measurement devices are arranged along the span of the first rotor blade between the root portion of the first rotor blade and the tip portion of the first rotor blade, - wherein the method comprises the further step of determining the radial distribution and the intensity of the strain.
A portable information processing apparatus (PIp) comprising: an upper case; a lower case having an open bay for installing an extension device which forms, when installed, a part of a bottom rear surface; and fixed feet (1c and 1d) each projecting downward from a bottom front surface, wherein the extension device includes a first extension device and a second extension device which is thicker than the first extension device in an up-down direction, the portable information processing apparatus (PIp) comprising a single adjustable foot, provided at a bottom rear surface thereof so as to be symmetrical with respect to the extension device, for allowing a height of a body of the portable information processing apparatus (PIp) to be adjusted, at a position at which the portable information processing apparatus (PIp) is set, by turning the single adjustable foot so as to change a length of a portion thereof projecting downward from a bottom surface, wherein the single adjustable foot is adjusted so that the single adjustable foot has a first height that is approximately the same height of the body of the portable information processing apparatus which is set above a first foot (51 a) projecting downward from a bottom surface of the first extension device in a first state in which the first extension device is installed in the open bay, and the single adjustable foot has a second height that is approximately the same height of the body of the portable information processing apparatus which is set above a second foot projecting downward from a bottom surface of the second extension device in a second state in which the second extension device is installed in the open bay.
A method for modifying the configuration of a programmable logic device, an initial configuration of the programmable logic device being read in so that a logic description, particularly a placed netlist, is at least partially present, one or more logic elements and/or connecting elements being replaced or reconfigured from the logic description of the initial configuration of the programmable logic device and a logic description of a target configuration comprising one or more additional logic elements being produced, and none, one, or more of the elements of the initial configuration not being used in the target configuration, a modified bitstream being produced from the logic description of the target configuration, and the modified bitstream being written to the programmable logic device, characterized in that transfer points are determined using association information, that is, logic elements present in the target and initial configurations, particularly registers or drivers, at which a modified logic function is placed (212, 213) in the target configuration, wherein the logic elements of the programmable logic device already not used in the initial configuration are marked as free (214, 215), wherein the logic elements of the initial configuration, having outputs connected only to inputs of transfer points, are also marked as free, and wherein the additional logic elements of the target configuration are placed on the logic elements marked as free and connected to the transfer points by means of unused connecting elements.
A fluidized bed reactor comprising a combustion chamber in which a fluidized bed made of a packing of solid particles, preferably silica sand, is stored, an air chamber located below the combustion chamber as well as a nozzle base between combustion chamber and air chamber which includes a plurality of openings through which combustion air can be guided from the air chamber into the fluidized bed, and wherein the nozzle base is formed in a flat manner on the side of the combustion chamber, characterized in that the nozzle base is made of two plates (6, 7) supported on top of one another which are connected face to face to each other, wherein each plate (6, 7) includes a plurality of through holes as well as depressions associated with each through hole respectively arranged on one side of the plate, and wherein the sides of the plates bearing the depressions face each other in the assembled state, wherein further a respective depression of a plate (6, 7) is sectionally aligned with a through hole and a section of a depression of the other plate (7,6) associated with the through hole such that a respective siphon-like, in cross-section S-shaped opening is formed for the combustion air.
A machine tool including: - a machine rack; - a first working spindle disposed at the machine rack for receiving a first workpiece; and - a second working spindle facing the first working spindle, disposed at the machine rack for receiving a second workpiece, wherein the spindle axis of the second working spindle is oriented coaxially to the spindle axis of the first working spindle; a first tool carrier disposed between the working spindles (21, 22) oriented coaxially to each other having two tool-carrying tool turret heads (62A, 62B), which are rotatably supported around respective turret axes oriented parallel or coaxially to each other, and characterized by a numerically controllable rotary axis for rotating the first tool carrier; wherein the two tool turret heads (62A, 62B) are disposed on opposing sides of the first tool carrier relative to the axis of revolution of the rotary axis; and wherein the rotary axis is oriented transversely or perpendicularly to the spindle axes of the first and second working spindles (21, 22) and the turret axes of the tool turret heads (62A, 62B) are oriented transversely or perpendicularly to the axis of revolution of the rotary axis. - a machine rack; - a first working spindle disposed at the machine rack for receiving a first workpiece; and - a second working spindle facing the first working spindle, disposed at the machine rack for receiving a second workpiece, wherein the spindle axis of the second working spindle is oriented coaxially to the spindle axis of the first working spindle;
An electronic device comprising: a communicator including a circuit; a memory storing at least one instruction; and a processor configured to execute the at least one instruction, wherein the processor is configured to: identify whether one or more packets are encrypted on the basis of receving the one or more packets from an external device connected to the electronic device, acquire first information on whether each of the one or more packets is encrypted and second information on a received signal strength indicator, RSSI, of each of the one or more packets, and acquire, in response to an instruction for acquiring authenticated RSSI information of the external device is executed, the authenticated RSSI information of the external device by identifying RSSI information of an encrypted first packet from among the one or more packets on the basis of the first information and the second information. a communicator including a circuit; a memory storing at least one instruction; and a processor configured to execute the at least one instruction, wherein the processor is configured to: identify whether one or more packets are encrypted on the basis of receving the one or more packets from an external device connected to the electronic device, acquire first information on whether each of the one or more packets is encrypted and second information on a received signal strength indicator, RSSI, of each of the one or more packets, and acquire, in response to an instruction for acquiring authenticated RSSI information of the external device is executed, the authenticated RSSI information of the external device by identifying RSSI information of an encrypted first packet from among the one or more packets on the basis of the first information and the second information. identify whether one or more packets are encrypted on the basis of receving the one or more packets from an external device connected to the electronic device, acquire first information on whether each of the one or more packets is encrypted and second information on a received signal strength indicator, RSSI, of each of the one or more packets, and acquire, in response to an instruction for acquiring authenticated RSSI information of the external device is executed, the authenticated RSSI information of the external device by identifying RSSI information of an encrypted first packet from among the one or more packets on the basis of the first information and the second information.
A non-naturally occurring or engineered CRISPR Cas9 associated with or fused to at least one destabilization domain, wherein said CRISPR Cas9 does not comprise an FRB Cas9-NES fragment which includes a PEST sequence, and wherein the destabilization domain enhances degradation of the non-naturally occurring or engineered CRISPR Cas9.