mhurhangee/ep-ind-claims huggingface dataset:
A deoxyribonucleic acid having attached at a 3' end thereof, by a phosphodiester bond, a compound having the structure: wherein the O atom labeled α is the 3' O atom of the deoxyribonucleic acid, the wavy line represents the remainder of the deoxyribonucleic acid that is 5' relative to the 3' O atom, and wherein R' is a cleavable chemical group.
A sensor assembly for force sensing comprising: a first portion having a first and a second through hole, a second portion having a third and fourth through hole, the third and fourth through holes (6, 7) being positioned in correspondence to the first and second through holes (3, 4), the sensor assembly further comprising a first pin and a second pin, wherein the first pin is arranged such that it extends through the first and third through holes (3, 6) and the second pin is arranged such that it extends through the second and fourth through holes (4, 7), so as to couple the first portion to the second portion, wherein the first and the second pin (8, 9) comprises at least one magneto-elastically active region that is directly or indirectly attached to or forms a part of the pin (8, 9) in such a manner that mechanical stress on the pin is transmitted to the magneto-elastically active region, the magneto-elastically active region comprising at least one magnetically polarized region such that a polarization of the polarized region becomes increasingly helically shaped as the applied stress increases; and a magnetic field sensor means arranged approximate the at least one magneto-elastically active region for outputting a signal corresponding to a stress-induced magnetic flux emanating from the magnetically polarized region, the magnetic field sensor means comprising at least one direction sensitive magnetic field sensor, which is configured for determination of a shear force in at least one direction, wherein the at least one direction sensitive magnetic field sensor is configured to detect force components of shear forces introduced into the pins (8, 9) by the first portion and the second portion, wherein the at least one direction sensitive magnetic field sensor is in particular arranged to have a predetermined and fixed spatial coordination with the pin (8, 9), and wherein the pin (8, 9) comprising the at least one direction sensitive magnetic field sensor is at least partially hollow and the at least one direction sensitive magnetic field sensor is arranged inside the interior of the pin (8, 9); wherein at least one out of the first and the second pin (8, 9) comprises: at least one X-direction sensitive magnetic field sensor configured to detect a force component Fx1 in a longitudinal direction X that is defined by a direction of longitudinal extension of the second portion, and at least one Z-direction sensitive magnetic field sensor configured to detect a force component Fz1 in a vertical direction Z, that is substantially perpendicular to the longitudinal direction X and perpendicular to the transversal direction Y of longitudinal extension of the at least one out of the first and second pin (8, 9).
A method of displaying an elastography image, the method comprising: transmitting an ultrasound signal to an object; receiving a response signal to the transmitted ultrasound signal; determining ultrasound image data based on the received response signal; determining displacement image data based on the determined ultrasound image data; generating elastography images based on the determined displacement image data; dividing the elastography images into a plurality of sections based on the displacement image data corresponding to the elastography images, wherein the plurality of sections corresponds to a plurality of frame sets, each including a plurality of elastography image frames; determining, for each section, the elastography image frames in the section for which the strain difference between two adjacent elastography images is minimum, selecting, for each section, any one of the two adjacent elastography images which were determined to have the minimum strain difference, as a representative elastography image of each of the sections; and displaying the representative elastography images. transmitting an ultrasound signal to an object; receiving a response signal to the transmitted ultrasound signal; determining ultrasound image data based on the received response signal; determining displacement image data based on the determined ultrasound image data; generating elastography images based on the determined displacement image data; dividing the elastography images into a plurality of sections based on the displacement image data corresponding to the elastography images, wherein the plurality of sections corresponds to a plurality of frame sets, each including a plurality of elastography image frames; determining, for each section, the elastography image frames in the section for which the strain difference between two adjacent elastography images is minimum, selecting, for each section, any one of the two adjacent elastography images which were determined to have the minimum strain difference, as a representative elastography image of each of the sections; and displaying the representative elastography images.
A method for operating a video display device, the method comprising: recognizing a preset trigger voice for acquiring a user voice; transmitting a voice acquisition command signal to at least one peripheral device connected to the video display device when the preset trigger voice is recognized; receiving at least one voice signal for a user voice acquired by at least one peripheral device having received the voice acquisition command signal, and a voice signal for the user voice acquired by the video display device; comparing the plurality of acquired voice signals with each other; determining a voice signal subjected to voice recognition based on the comparison result; recognizing the user voice based on the determined voice signal; and performing a control operation corresponding to the recognized voice. recognizing a preset trigger voice for acquiring a user voice; transmitting a voice acquisition command signal to at least one peripheral device connected to the video display device when the preset trigger voice is recognized; receiving at least one voice signal for a user voice acquired by at least one peripheral device having received the voice acquisition command signal, and a voice signal for the user voice acquired by the video display device; comparing the plurality of acquired voice signals with each other; determining a voice signal subjected to voice recognition based on the comparison result; recognizing the user voice based on the determined voice signal; and performing a control operation corresponding to the recognized voice.
A method of encoding at least a part of an image comprising a plurality of samples, each sample comprising a luma component and first and second chroma components, the encoded image comprising at least one filtering parameter, the method comprising encoding the first chroma component and the second chroma component of at least one sample of the image to provide at least one encoded sample; decoding the at least one encoded sample; computing the at least one filtering parameter as a function of the difference between at least one said component of the at least one sample of the image and the at least one corresponding component of the at least one corresponding decoded sample, the or each said filtering parameter being computed so as to be used in a loop filter of a decoder as a filtering parameter for performing sample adaptive offset loop filtering on said at least one corresponding component of a decoded sample; wherein the decoding also comprises using the or each said filtering parameter to perform sample adaptive offset loop filtering in a loop filter; characterised in that when the sample adaptive offset loop filtering is of a first type at least one filtering parameter other than an offset is computed to be used as a common filtering parameter for performing sample adaptive offset loop filtering of the first type on both the first and second chroma components of a decoded sample, the first type of sample adaptive offset loop filtering being one of edge-type filtering and band-type filtering, and when the sample adaptive offset loop filtering is of a second type, different from the first type, different filtering parameters are computed to be used as dedicated filtering parameters for performing sample adaptive offset filtering of the second type on the first and second chroma components respectively, the second type of sample adaptive offset loop filtering being the other of edge-type filtering and band-type filtering.
A method for processing a camera lens, wherein the camera lens comprises a lens barrel, the method comprising: obtaining a first lens group and a second lens group, wherein the first lens group is configured to form a light incidence surface of the camera lens and comprises a plurality of interconnected lenses (1, 2); and the second lens group is configured to form a light emitting surface of the camera lens; and characterized in that the method further comprises: disposing a bearing structure at an end of the lens barrel away from the light incidence surface; and sequentially mounting the second lens group and the first lens group into the lens barrel along an incidence direction of external light to obtain the camera lens, wherein the second lens group is supported by the bearing structure and the first lens group is protruded partially from an end surface of the lens barrel. obtaining a first lens group and a second lens group, wherein the first lens group is configured to form a light incidence surface of the camera lens and comprises a plurality of interconnected lenses (1, 2); and the second lens group is configured to form a light emitting surface of the camera lens; and characterized in that the method further comprises: disposing a bearing structure at an end of the lens barrel away from the light incidence surface; and sequentially mounting the second lens group and the first lens group into the lens barrel along an incidence direction of external light to obtain the camera lens, wherein the second lens group is supported by the bearing structure and the first lens group is protruded partially from an end surface of the lens barrel. disposing a bearing structure at an end of the lens barrel away from the light incidence surface; and sequentially mounting the second lens group and the first lens group into the lens barrel along an incidence direction of external light to obtain the camera lens, wherein the second lens group is supported by the bearing structure and the first lens group is protruded partially from an end surface of the lens barrel.
A recorder for recording seismic data comprising: a housing; a processor disposed in said housing operatively coupled to at least one seismic sensor for receiving data therefrom; a memory disposed in said housing and operatively coupled to said processor for storing said data; an acquisition clock module disposed in said housing and operatively coupled to said processor; and a satellite navigation system receiver disposed in said housing and operatively coupled to said processor; wherein said processor is arranged and designed to: idle said satellite navigation system receiver for a first duration; and periodically adjust said acquisition clock module with a time signal derived by said satellite navigation system receiver; characterised in that said processor is arranged and designed further to measure a change in temperature by said recorder and determine said first duration as a function of said change in temperature; whereby synchronized timing between a plurality of said recorders is maintainable without continuous operation of said satellite navigation system receiver of each of said recorders. a housing; a processor disposed in said housing operatively coupled to at least one seismic sensor for receiving data therefrom; a memory disposed in said housing and operatively coupled to said processor for storing said data; an acquisition clock module disposed in said housing and operatively coupled to said processor; and a satellite navigation system receiver disposed in said housing and operatively coupled to said processor; wherein said processor is arranged and designed to: idle said satellite navigation system receiver for a first duration; and periodically adjust said acquisition clock module with a time signal derived by said satellite navigation system receiver; characterised in that said processor is arranged and designed further to measure a change in temperature by said recorder and determine said first duration as a function of said change in temperature; whereby synchronized timing between a plurality of said recorders is maintainable without continuous operation of said satellite navigation system receiver of each of said recorders. idle said satellite navigation system receiver for a first duration; and periodically adjust said acquisition clock module with a time signal derived by said satellite navigation system receiver; characterised in that said processor is arranged and designed further to measure a change in temperature by said recorder and determine said first duration as a function of said change in temperature; whereby synchronized timing between a plurality of said recorders is maintainable without continuous operation of said satellite navigation system receiver of each of said recorders.
An apparatus for treating a vessel in skin, comprising: a plurality of electrodes that are inserted in skin to deliver an electrical signal to a target vessel; an electrical signal generator electrically coupled to the plurality of electrodes; and a power supply unit for supplying power to the electrical signal generator, wherein the target vessel is positioned between two electrodes among the plurality of electrodes, wherein thermal damage is induced to the target vessel by the electrical signal applied to the plurality of electrodes, wherein the electrical signal delivered to the plurality of electrodes is a repetitive electrical signal with at least one delay time, and characterized in that the voltage applied to the plurality of electrodes is in the range of 20 Vrms to 250 Vrms, the power transmitted to the plurality of electrodes is in the range of 4.0 W to 625 W, the duration over which the electrical signal is conducted to the plurality of electrodes is in the range of 10 msec to 300 msec, and the delay time is in the range of 0.1 msec to 500 msec. a plurality of electrodes that are inserted in skin to deliver an electrical signal to a target vessel; an electrical signal generator electrically coupled to the plurality of electrodes; and a power supply unit for supplying power to the electrical signal generator, wherein the target vessel is positioned between two electrodes among the plurality of electrodes, wherein thermal damage is induced to the target vessel by the electrical signal applied to the plurality of electrodes, wherein the electrical signal delivered to the plurality of electrodes is a repetitive electrical signal with at least one delay time, and characterized in that the voltage applied to the plurality of electrodes is in the range of 20 Vrms to 250 Vrms, the power transmitted to the plurality of electrodes is in the range of 4.0 W to 625 W, the duration over which the electrical signal is conducted to the plurality of electrodes is in the range of 10 msec to 300 msec, and the delay time is in the range of 0.1 msec to 500 msec.
A powder grain comprising a plurality of channels which may or may not be open, at least one channel being partially or completely closed by at least one stopper, said at least one stopper being made of a material whose melting temperature is greater than or equal to the maximum hot operating temperature of the powder grain, said material having a composition identical to or different from that of the powder grain, it being understood that when at least one stopper is made of a material having a composition different from that of the powder grain, said material is an energetic material or an inflammable material.
An apparatus to determine an ophthalmic tissue pathology, comprising: an axial scanner with a probe, moveable along a scanning line configured to measure image data for a range of depths corresponding to a target point in an eye; an imaging processor coupled to a memory, configured to determine retinal image information from the image data, including identifying two or more image features in the image data that represent boundaries of the tissue layers along the scanning line, and to identify a retinal tissue pathology corresponding to the target point from the image information by comparing a depth of the two or more image features representing boundaries of tissue layers at a first portion of the scanning line to a depth of the two or more image features representing boundaries of tissue layers at a different, second portion of the scanning line, and communicating with a lookup table that stores a correlation of the retinal image information and the retinal tissue pathology; and a user indicator configured to, based on the retinal tissue pathology identified by the imaging processor, project a visual indicator on the retina to indicate to the user the identified retinal tissue pathology, wherein each indicator is visible to the user through a surgical microscope and indicates a particular type of retinal tissue pathology. an axial scanner with a probe, moveable along a scanning line configured to measure image data for a range of depths corresponding to a target point in an eye; an imaging processor coupled to a memory, configured to determine retinal image information from the image data, including identifying two or more image features in the image data that represent boundaries of the tissue layers along the scanning line, and to identify a retinal tissue pathology corresponding to the target point from the image information by comparing a depth of the two or more image features representing boundaries of tissue layers at a first portion of the scanning line to a depth of the two or more image features representing boundaries of tissue layers at a different, second portion of the scanning line, and communicating with a lookup table that stores a correlation of the retinal image information and the retinal tissue pathology; and a user indicator configured to, based on the retinal tissue pathology identified by the imaging processor, project a visual indicator on the retina to indicate to the user the identified retinal tissue pathology, wherein each indicator is visible to the user through a surgical microscope and indicates a particular type of retinal tissue pathology.
A round baler for forming a bale from a crop product, comprising - a first bale forming chamber provided with a first bale forming mechanism, - a second bale forming chamber provided with a second bale forming mechanism, and - a feeding mechanism, comprising a pickup device, a feeding rotor device, and a drop floor unit, the drop floor unit comprising a drop floor device and a crop deflector device pivotably connected to the drop floor device, and - a feeding path provided between the pickup device and the first and second bale forming chamber (101, 102), characterized in that - for adjusting the size of the feeding path at least in a feeding path section adjacent to the drop floor device, the drop floor device is pivotable between a plurality of different positions in each of which the feeding path section is open for conveying the crop through the feeding path section, and - the crop deflector device has its pivot point and pivoting actuators mounted to the drop floor device, the deflector device and its pivoting actuators being free of attachment to any other part of the round baler's structure. - a first bale forming chamber provided with a first bale forming mechanism, - a second bale forming chamber provided with a second bale forming mechanism, and - a feeding mechanism, comprising a pickup device, a feeding rotor device, and a drop floor unit, the drop floor unit comprising a drop floor device and a crop deflector device pivotably connected to the drop floor device, and - a feeding path provided between the pickup device and the first and second bale forming chamber (101, 102), characterized in that - for adjusting the size of the feeding path at least in a feeding path section adjacent to the drop floor device, the drop floor device is pivotable between a plurality of different positions in each of which the feeding path section is open for conveying the crop through the feeding path section, and - the crop deflector device has its pivot point and pivoting actuators mounted to the drop floor device, the deflector device and its pivoting actuators being free of attachment to any other part of the round baler's structure.
A variable light emission modular lighting system, comprising at least one base element comprising a support structure and a lighting body, supported by the structure and provided with a plurality of elementary light sources defining respective modules of the system; and a control unit operating on the elementary light sources; wherein the control unit controls individually each elementary light source so as to selectively operate at least one operation parameter of each elementary light source; the system being characterized in that the control unit is configured so as to switch on a plurality of elementary light sources in number and positions such as to provide a preset light intensity; and to vary over time the positions of the elementary light sources turned on continuously in a slow motion, so as to maintain the average light intensity emitted substantially constant, substantially equal to the preset light intensity with an approximate fluctuation of a few Kelvins, in the range of +10K to -10K.
A method for the surface treatment of a workpiece, in which the workpiece is initially clamped by the tensioning of a seal and a space enveloped by a metal tube, located in a device, at least partially accommodating the workpiece is tightly closed in relation to the surroundings, then the workpiece 1 is electrically contacted, subsequently the surface treatments of degreasing, rinsing and activating, which prepare the coating by electroplating, as well as afterwards the surface treatment of the coating itself are carried out, wherein for this purpose in each case a medium required for the respective process step is supplied to the space, while the liquid media required for this purpose flow via a connection into the space, are distributed via a remaining gap from the space accommodating the workpiece into an annular channel serving as a return space, and discharge again via a line serving as an outlet, wherein the liquid media are sucked away on the line serving as outlet, and wherein after the coating the workpiece is rinsed of adherent electrolyte and dried by the introduction of hot steam under positive pressure through the inlet into the space.