mhurhangee/ep-ind-claims huggingface dataset:
Optical device comprising: - a scanner assembly for histological slides comprising a motorized platform, which platform is intended to bear a slide on which a sample is placed, and a nonlinear optical microscope comprising: - a pulsed laser beam source; - a spatial light modulator for modulating the spatial profile of the pulsed laser beam; - an objective for guiding the modulated beam to the slide; and - detection means (9, 10) for collecting coherent and incoherent signals arising from the sample, in which the spatial light modulator is designed to modulate the intensity and/or the phase of the pulsed laser beam on the back pupil of the objective so as to produce a beam that is extended axially and confined in one or two lateral directions after focusing by the objective. - a scanner assembly for histological slides comprising a motorized platform, which platform is intended to bear a slide on which a sample is placed, and a nonlinear optical microscope comprising: - a pulsed laser beam source; - a spatial light modulator for modulating the spatial profile of the pulsed laser beam; - an objective for guiding the modulated beam to the slide; and - detection means (9, 10) for collecting coherent and incoherent signals arising from the sample, - a pulsed laser beam source; - a spatial light modulator for modulating the spatial profile of the pulsed laser beam; - an objective for guiding the modulated beam to the slide; and - detection means (9, 10) for collecting coherent and incoherent signals arising from the sample,
A power semiconductor module, comprising: a partitioning wall member having a plurality of openings on one side and a plurality of openings on the other side of the partitioning wall member; a semiconductor and a film capacitor; a plurality of bus bars each bonded to a collector lead and an emitter lead of the semiconductor and to a positive electrode side lead and a negative electrode side lead of the film capacitor; a plurality of coolers housed in the openings on the other side; and a sealing material sealed in the openings on the one side, characterised in that the semiconductor and the film capacitor are housed alternately in the openings on the one side, each of the semiconductor and the film capacitor is individually housed between two of the plurality of coolers to allow dissipation of heat, and the sealing material buries the semiconductor, the film capacitor and the plurality of the bus bars. a partitioning wall member having a plurality of openings on one side and a plurality of openings on the other side of the partitioning wall member; a semiconductor and a film capacitor; a plurality of bus bars each bonded to a collector lead and an emitter lead of the semiconductor and to a positive electrode side lead and a negative electrode side lead of the film capacitor; a plurality of coolers housed in the openings on the other side; and a sealing material sealed in the openings on the one side, characterised in that the semiconductor and the film capacitor are housed alternately in the openings on the one side, each of the semiconductor and the film capacitor is individually housed between two of the plurality of coolers to allow dissipation of heat, and the sealing material buries the semiconductor, the film capacitor and the plurality of the bus bars.
Flexible portable electronic device capable of generating an item of information, said flexible portable electronic device comprising a flexible body arranged to be capable of attachment to a part of a user's body, and at least one electronic assembly for generating an item of information, the flexible body comprising a lower flexible band and an upper flexible band secured to the lower flexible band, the electronic assembly for generating information being housed between the lower flexible band and the upper flexible band, said electronic assembly for generating information being provided with a first rigidity greater than a second rigidity with which the flexible body is provided, characterized in that the flexible portable electronic device includes at least one reinforcing element (26a, 26b) housed between the lower and upper flexible bands (4, 6) and disposed only in the joining area, along the longitudinal direction of said bands, between a first area of the first rigidity and a second area of the second rigidity, and/or only in the joining area along the longitudinal direction of said bands, between two consecutive areas of first rigidity.
A system comprising first and second terminals (104A, 104B), wherein said first terminal includes an output device (212, 214), storage means for storing a mode identifier designating any of a plurality of operation modes in which output levels of said output device differs, a communication device, position obtaining means for obtaining a current position of said first terminal, designating means for allowing a user to designate any of said plurality of operation modes, and transmission means, responsive to designation of any of said plurality of operation modes by said designating means, for transmitting, through said communication device, a mode change instruction including the current position of said first terminal obtained by said position obtaining means and a mode identifier indicating the operation mode designated by said designating means; and said second terminal includes an output device, storage means for storing a mode identifier designating any of a plurality of operation modes in which output levels of said output device of said second terminal differs, a communication device, position obtaining means for obtaining a current position of said second terminal, and means, responsive to said communication device of said second terminal receiving the mode change instruction from other terminal, for determining that the mode identifier included in said received mode change instruction is to be stored in said storage means of said second terminal, when a distance between the current position of said second terminal obtained by said position obtaining means of said second terminal and the current position of said other terminal included in said received mode change instruction is smaller than a prescribed distance.
Operating method for an application robot or for a first application robot and at least one further second application robot for applying a fluid on one or more workpieces, wherein the application robot runs during operation through a first positioning range, which is a near range, and a second positioning range, which is a remote range, or wherein the first application robot and the at least one further second application robot run during operation through a plurality of positioning ranges (SB11, SB22), characterized in that S1) for the positioning ranges (SB1, SB2) of the robot its dynamic behaviour, comprising a maximum permissible positive or negative acceleration, and/or a load characteristic value, representing a maximum permissible loading of the robot, are determined during traversing of a robot program, or for the positioning ranges (SB11, SB22) of the first robot and of the further second robot their dynamic behaviour, comprising a maximum permissible positive or negative acceleration, and/or a load characteristic value, representing a maximum permissible loading of the respective robot (LR1, LR2), are determined during traversing of a robot program, S2) the dynamic behaviour and/or the load characteristic value of the robot in the first positioning range are adapted to the dynamic behaviour and/or to the load characteristic value in the second positioning range of the robot or the dynamic behaviour and/or the load characteristic value of the first robot in at least a first positioning range are adapted to the dynamic behaviour and/or to the load characteristic value of the second robot in at least one second positioning range, and S3) the fluid is applied with the adapted dynamic behaviour and/or load characteristic value. S1) for the positioning ranges (SB1, SB2) of the robot its dynamic behaviour, comprising a maximum permissible positive or negative acceleration, and/or a load characteristic value, representing a maximum permissible loading of the robot, are determined during traversing of a robot program, or for the positioning ranges (SB11, SB22) of the first robot and of the further second robot their dynamic behaviour, comprising a maximum permissible positive or negative acceleration, and/or a load characteristic value, representing a maximum permissible loading of the respective robot (LR1, LR2), are determined during traversing of a robot program, S2) the dynamic behaviour and/or the load characteristic value of the robot in the first positioning range are adapted to the dynamic behaviour and/or to the load characteristic value in the second positioning range of the robot or the dynamic behaviour and/or the load characteristic value of the first robot in at least a first positioning range are adapted to the dynamic behaviour and/or to the load characteristic value of the second robot in at least one second positioning range, and S3) the fluid is applied with the adapted dynamic behaviour and/or load characteristic value.
A method for predicting eye movement in a head mounted display, HMD, the method comprising: tracking movement of an eye of a user with a gaze tracking system disposed in the HMD at a plurality of sample points, sample points being points in time at which a tracking information is collected, while the user is viewing a sequence of video frames; determining velocity of the movement based on the tracking; determining that the eye of the user is in a saccade upon the velocity reaching a threshold velocity; predicting a landing point on a display of the HMD corresponding to a direction of the eye for the saccade; characterized in that the method further comprises rendering for display a first video frame having a foveal region centered at the landing point on the display of the HMD; presenting the first video frame having the foveal region on the display of the HMD, wherein the eye is predicted to be oriented towards the landing point upon displaying the first video frame; and terminating rendering of at least one video frame, before the rendering of the frame is completed, during the saccade that is to be rendered before the first video frame. tracking movement of an eye of a user with a gaze tracking system disposed in the HMD at a plurality of sample points, sample points being points in time at which a tracking information is collected, while the user is viewing a sequence of video frames; determining velocity of the movement based on the tracking; determining that the eye of the user is in a saccade upon the velocity reaching a threshold velocity; predicting a landing point on a display of the HMD corresponding to a direction of the eye for the saccade; characterized in that the method further comprises rendering for display a first video frame having a foveal region centered at the landing point on the display of the HMD; presenting the first video frame having the foveal region on the display of the HMD, wherein the eye is predicted to be oriented towards the landing point upon displaying the first video frame; and terminating rendering of at least one video frame, before the rendering of the frame is completed, during the saccade that is to be rendered before the first video frame.
Round baler, comprising: a baling chamber, around the circumference of which drivable conveying elements (22, 22') are distributed and can be set into motion by means of a drive train in order to shape material introduced into the baling chamber into a bale, and feeding means which are designed to move wrapping material from a store (46, 60) in the direction of the baling chamber in order to wrap a bale completed in the baling chamber, characterized in that a part of the conveying elements (22, 22') is connected separably to the drive train by one coupling and can be coupled in terms of drive to the feeding means by another coupling, and a controller can be operated to activate the couplings (92, 94) in such a manner that said part of the conveying elements is separated from the drive train during the wrapping operation and is coupled to the feeding means, and therefore said part of the conveying elements (22, 22') is driven during the wrapping operation by the bale to be wrapped and drives the feeding means at a speed which is dependent on the respective circumferential speed of the bale. a baling chamber, around the circumference of which drivable conveying elements (22, 22') are distributed and can be set into motion by means of a drive train in order to shape material introduced into the baling chamber into a bale, and feeding means which are designed to move wrapping material from a store (46, 60) in the direction of the baling chamber in order to wrap a bale completed in the baling chamber, characterized in that a part of the conveying elements (22, 22') is connected separably to the drive train by one coupling and can be coupled in terms of drive to the feeding means by another coupling, and a controller can be operated to activate the couplings (92, 94) in such a manner that said part of the conveying elements is separated from the drive train during the wrapping operation and is coupled to the feeding means, and therefore said part of the conveying elements (22, 22') is driven during the wrapping operation by the bale to be wrapped and drives the feeding means at a speed which is dependent on the respective circumferential speed of the bale.
A method for manufacturing an LED filament, comprising: operation S1, providing a plurality of metal sheets arranged in two rows in parallel, each metal sheet at one row having one end extending to the corresponding metal sheet at the other row, and the other ends of the metal sheets at said one row connecting with each other to form a positioning portion; operation S2, providing a plurality of brackets, and each bracket being located between two corresponding metal sheets and fixedly connected to the two metal sheets, the two corresponding metal sheets being located in different rows and facing to each other, each of the metal sheets defining a clamping part for clamping the bracket; operation S3, providing a plurality of LED chips and attaching the LED chips to each of the brackets, and the LED chips being electrically connected to the metal sheets by conducting wire; operation S4, packaging each bracket, the LED chips defined on the bracket, the conducting strip or the conducting wire defined on the bracket, and the joint of the bracket and the metal sheet using packaging material to form an encapsulation layer; the encapsulation layer, the bracket, the LED chips, the conducting strip and/or conducting wire, and the connected two metal sheets cooperatively forming the LED filament; and each of the brackets being attached with a rectifier module, and the rectifier module being defined at an end of the bracket closing to the metal sheet. operation S1, providing a plurality of metal sheets arranged in two rows in parallel, each metal sheet at one row having one end extending to the corresponding metal sheet at the other row, and the other ends of the metal sheets at said one row connecting with each other to form a positioning portion; operation S2, providing a plurality of brackets, and each bracket being located between two corresponding metal sheets and fixedly connected to the two metal sheets, the two corresponding metal sheets being located in different rows and facing to each other, each of the metal sheets defining a clamping part for clamping the bracket; operation S3, providing a plurality of LED chips and attaching the LED chips to each of the brackets, and the LED chips being electrically connected to the metal sheets by conducting wire; operation S4, packaging each bracket, the LED chips defined on the bracket, the conducting strip or the conducting wire defined on the bracket, and the joint of the bracket and the metal sheet using packaging material to form an encapsulation layer; the encapsulation layer, the bracket, the LED chips, the conducting strip and/or conducting wire, and the connected two metal sheets cooperatively forming the LED filament; and each of the brackets being attached with a rectifier module, and the rectifier module being defined at an end of the bracket closing to the metal sheet.
A method of preparing chemoembolization composition for anti-angiogenic agent delivery characterized in that said method comprises the following steps: a) providing drug eluting beads, selected from the group comprising sulphonate-modified polyvinyl alcohol hydrogel beads or carboxyl-modified polyvinyl alcohol-co-sodium acrylate beads, b) preparing an aqueous solution of anti-angiogenic agent, wherein said aqueous solution has a pH of 2.5 to 5 and wherein said anti-angiogenic agent has low aqueous solubility of less than 5mg/mL and being positively charged, c) adding a sugar or polyol solution to the anti-angiogenic solution of step b) d) contacting anti-angiogenic solution of step c) with drug eluting beads of step a). a) providing drug eluting beads, selected from the group comprising sulphonate-modified polyvinyl alcohol hydrogel beads or carboxyl-modified polyvinyl alcohol-co-sodium acrylate beads, b) preparing an aqueous solution of anti-angiogenic agent, wherein said aqueous solution has a pH of 2.5 to 5 and wherein said anti-angiogenic agent has low aqueous solubility of less than 5mg/mL and being positively charged, c) adding a sugar or polyol solution to the anti-angiogenic solution of step b) d) contacting anti-angiogenic solution of step c) with drug eluting beads of step a).
For backfilling spoil into a seabed trench, a plow comprising: a chassis; a skid supporting an aft end of said chassis above the seabed; moldboards mounted on said chassis forward of said skid, said moldboards being sized and oriented to span the trench and funnel spoil disposed on the seabed laterally of the trench toward the center of the trench as the plow travels forward on the seabed; and a blade mounted on and spanning bottom edges of said moldboards to collect the spoil in its path as the plow travels forward on the seabed, said blade having a passage at a rear apex thereof configured to dispense spoil collected by said blade and funneled by said moldboards to said passage on top of a pipe or cable disposed in the trench below said passage. a chassis; a skid supporting an aft end of said chassis above the seabed;
An impedance measuring device for a laminated battery, comprising: an AC power supply unit configured to output an alternating current to an impedance measured object, the impedance measured object including at least a laminated battery; an AC potential difference detecting unit configured to detect one of a positive-electrode side AC potential difference and a negative-electrode side AC potential difference, the positive-electrode side AC potential difference being a potential difference between a potential on a positive electrode side of the impedance measured object and an intermediate potential of the impedance measured object, the negative-electrode side AC potential difference being a potential difference between a potential on a negative electrode side of the impedance measured object and the intermediate potential of the impedance measured object; and an impedance computing unit configured to compute an impedance of the laminated battery on the basis of the one AC potential difference detected by the AC potential difference detecting unit and the alternating current applied to the impedance measured object; characterized by a filter configured to remove a component corresponding to a frequency of the alternating current outputted by the AC power supply unit from the other of the positive-electrode side AC potential difference and the negative-electrode side AC potential difference; and an adding unit configured to add the filtered other AC potential difference outputted by the filter to the one AC potential difference detected by the AC potential difference detecting unit. an AC power supply unit configured to output an alternating current to an impedance measured object, the impedance measured object including at least a laminated battery; an AC potential difference detecting unit configured to detect one of a positive-electrode side AC potential difference and a negative-electrode side AC potential difference, the positive-electrode side AC potential difference being a potential difference between a potential on a positive electrode side of the impedance measured object and an intermediate potential of the impedance measured object, the negative-electrode side AC potential difference being a potential difference between a potential on a negative electrode side of the impedance measured object and the intermediate potential of the impedance measured object; and an impedance computing unit configured to compute an impedance of the laminated battery on the basis of the one AC potential difference detected by the AC potential difference detecting unit and the alternating current applied to the impedance measured object; characterized by a filter configured to remove a component corresponding to a frequency of the alternating current outputted by the AC power supply unit from the other of the positive-electrode side AC potential difference and the negative-electrode side AC potential difference; and an adding unit configured to add the filtered other AC potential difference outputted by the filter to the one AC potential difference detected by the AC potential difference detecting unit.
An RF receiver comprising: a down-converting and sampling circuit adapted to: - receive an RF input signal (RF IN) having a signal band (BW RF) comprising a plurality of sub-bands (BW IF), each sub-band comprising a plurality of channels separated by frequency channel spaces (Δf CH); - perform frequency transposition and sampling to generate a discrete time signal in which a selected one of the plurality of sub-bands is brought from an initial frequency band to a lower frequency band (IF2 0 ±KΔf CH); and a discrete time filter having a variable pass band, the central frequency (f 0) of the discrete time filter being controllable to select any one of the plurality of channels of the selected sub-band. a down-converting and sampling circuit adapted to: - receive an RF input signal (RF IN) having a signal band (BW RF) comprising a plurality of sub-bands (BW IF), each sub-band comprising a plurality of channels separated by frequency channel spaces (Δf CH); - perform frequency transposition and sampling to generate a discrete time signal in which a selected one of the plurality of sub-bands is brought from an initial frequency band to a lower frequency band (IF2 0 ±KΔf CH); and - receive an RF input signal (RF IN) having a signal band (BW RF) comprising a plurality of sub-bands (BW IF), each sub-band comprising a plurality of channels separated by frequency channel spaces (Δf CH); - perform frequency transposition and sampling to generate a discrete time signal in which a selected one of the plurality of sub-bands is brought from an initial frequency band to a lower frequency band (IF2 0 ±KΔf CH); and a discrete time filter having a variable pass band, the central frequency (f 0) of the discrete time filter being controllable to select any one of the plurality of channels of the selected sub-band.
A phase change memory, PCM, cell, comprising: a PCM material layer; a metal ceramic composite material layer; and an amorphous carbon nitride (CN x) electrode layer disposed between the PCM material layer and the metal ceramic composite material layer. a PCM material layer; a metal ceramic composite material layer; and an amorphous carbon nitride (CN x) electrode layer disposed between the PCM material layer and the metal ceramic composite material layer.