mhurhangee/patent-ind-claim-en huggingface dataset:
A device for blow-molding containers, the device comprising a structure and a platform mounted to rotate on the structure about an axis of rotation , the platform being provided with blower members and with molds that are mounted under the blower members, each of which comprises a stationary mold portion and a movable mold portion that is movable in pivoting by control means between an open position and a closed position for the mold, the device being characterized in that it includes blocking members for blocking the molds in the closed state, each blocking member comprising a strut that is connected to the movable mold portion by at least one link and that is secured to a pivot shaft mounted on the platform to move between a retracted position and a blocking position in which the strut is in contact with a surface secured to the movable mold portion, the pivot shaft being positioned in such a manner that in the blocking position the strut extends in a direction (F) along which a resultant of the blow-molding force as taken up by the movable mold portion is applied.
A push frame for determining at least one property of a test piece upon impact of a thrust load, comprising two frame halves between which a test piece is non-positively and/or positively fixable, wherein, when in the fixing state, the two frame halves extend substantially in two planes running parallel to each other and each have four coupling elements as well as four joints with only one rotational degree of freedom, with which joints the coupling elements are articulated to each other, wherein a respective joint of a frame half is separated from each joint of the opposing frame half on the line of its rotational axis , wherein the push frame has at least one linking element which is connected to a coupling element by means of at least one linkage bolt , wherein the linking element is adapted to be mechanically linked to a push device and to transfer a tensile and/or a compressive force of the push device to the frame half including the respective coupling element , and characterized in that the linkage bolt is designed with a length such that the coupling element linked thereto and thus also the frame half comprising said coupling element can be translationally displaced due to a relative movement between the linked coupling element and the linkage bolt and/or between the linkage bolt and the linking element .
Method for degassing hydrogen from a liquid used for hydrogen storage by means of a device , comprising a desorber , a gas connection connected to the desorber , a circulation pump , a vacuum pump , at least one sensor , and a control unit, having the following method steps: - filling the desorber with the liquid to be degassed, wherein, during a filling process with the liquid, a vacuum can be generated in the desorber by means of the vacuum pump , and this liquid flows through the desorber ; - circulating the liquid during a degassing process in the desorber by means of the circulation pump ; - removing the hydrogen gas from the desorber during the degassing process by means of the vacuum pump ; - measuring the pressure in the desorber and/or measuring the time by means of the respective sensor ; - ending the degassing process when the respective sensor measures a predetermined pressure and/or on measuring a predetermined residence time of the liquid in the desorber by means of the control unit; and - feeding a further gas into the desorber via the gas connection during draining of the liquid from the desorber so that pressure equalisation takes place and, in addition to the pressure required for draining, a gas atmosphere is generated in the interior of the desorber which effectively prevents ignition of a residual quantity of the separated hydrogen possibly remaining in the desorber . - filling the desorber with the liquid to be degassed, wherein, during a filling process with the liquid, a vacuum can be generated in the desorber by means of the vacuum pump , and this liquid flows through the desorber ; - circulating the liquid during a degassing process in the desorber by means of the circulation pump ; - removing the hydrogen gas from the desorber during the degassing process by means of the vacuum pump ; - measuring the pressure in the desorber and/or measuring the time by means of the respective sensor ; - ending the degassing process when the respective sensor measures a predetermined pressure and/or on measuring a predetermined residence time of the liquid in the desorber by means of the control unit; and - feeding a further gas into the desorber via the gas connection during draining of the liquid from the desorber so that pressure equalisation takes place and, in addition to the pressure required for draining, a gas atmosphere is generated in the interior of the desorber which effectively prevents ignition of a residual quantity of the separated hydrogen possibly remaining in the desorber .
A method for synchronizing a multiple carrier receiver to receive a transmitted signal, comprising: determining a location of scattered pilot carriers in a received symbol sequence ; modulating the scattered pilot carriers in accordance with a single pseudorandom binary sequence to form modulated scattered pilot carriers, wherein the single pseudorandom binary sequence is a Gold sequence at least twice as long as a number of active carriers in a largest Fast Fourier Transform, FFT, size used to produce the symbol sequence, and wherein the modulating comprises cross-correlating the scattered pilot carriers with an FFT of the Gold sequence over a time period of any two symbol durations, and wherein the cross-correlation provides an output that includes an identifiable peak indicative of where a symbol begins in the received symbol sequence; and performing phase error correction via the modulated scattered pilot carriers . determining a location of scattered pilot carriers in a received symbol sequence ; modulating the scattered pilot carriers in accordance with a single pseudorandom binary sequence to form modulated scattered pilot carriers, wherein the single pseudorandom binary sequence is a Gold sequence at least twice as long as a number of active carriers in a largest Fast Fourier Transform, FFT, size used to produce the symbol sequence, and wherein the modulating comprises cross-correlating the scattered pilot carriers with an FFT of the Gold sequence over a time period of any two symbol durations, and wherein the cross-correlation provides an output that includes an identifiable peak indicative of where a symbol begins in the received symbol sequence; and performing phase error correction via the modulated scattered pilot carriers .
A method for a user equipment, UE, comprising determining if a signal pertaining to control information is received in a first time period, wherein the signal indicates whether control information is present; and deciding whether to attempt to decode the control information depending on the determination, characterized in that the signal comprises a sequence of symbols, where the length of the sequence depends on the maximum length of a control channel search space of a control channel carrying the control information. determining if a signal pertaining to control information is received in a first time period, wherein the signal indicates whether control information is present; and deciding whether to attempt to decode the control information depending on the determination, characterized in that the signal comprises a sequence of symbols, where the length of the sequence depends on the maximum length of a control channel search space of a control channel carrying the control information.
A nano- or micro-scale therapeutic agent for use in the treatment of an infection of a human or animal comprising micro- and/or nano-particle carriers loaded singly or in combination with one or more inert precursor chemicals comprising a peroxygen donor and an acetyl donor, the carriers encapsulating the precursor chemical or chemicals which in situ at the site of an infection are activated by the physiological milieu such that the peroxygen donor forms hydrogen peroxide and the acetyl donor reacts with the hydrogen peroxide to produce a mixture of peracetic acid and hydrogen peroxide, and characterised in that the particle carriers are comprised of a biodegradable polymer.
Pendulum vibration absorber for damping tower vibrations in a wind turbine, where the damping can be adapted to the speed of the pendulum, comprising at least one pendulum mass which is attached to pendulum cables or pendulum rods , and at least two hydraulic dampers having damping properties that can be adjusted along the piston travel, which are attached at one end to the pendulum mass and at the other end to the construction to be damped, where the hydraulic dampers each comprise (i) a main cylinder , in the interior of which a piston , which can be moved by hydraulic fluid, can be moved to and fro along its longitudinal axis by means of at least one piston rod in accordance with the forces acting externally on the damper in the longitudinal direction; and the main cylinder has a conical design, at least in the two end regions, so that the narrower cone end faces outward and the wider cone end faces inward, causing the diameter of the cylinder to be greater in the centre than in the two end regions, and the piston likewise has a correspondingly conical design, which enables the piston to be moved into the respective conical end region of the cylinder as far as the end stop, and the gap between piston and main cylinder is greater in the central region of the main cylinder than in the conical end regions, (ii) a pre- and post-cylinder region and (iii) overflow devices and/or back-flow devices, which return the hydraulic fluid displaced by the moved piston behind the piston, where the damping of the hydraulic dampers, which is generated by friction of the hydraulic fluid flowing past between piston and main cylinder, is dependent on the said gap between main cylinder and piston the one hand and the speed of the piston on the other hand, and the speed of the pendulum is greatest when passing through the zero point, decreases with increasing amplitude and becomes zero at the greatest excursion point of the pendulum, characterised in that the cone shape of the main cylinder in the two end regions is designed so that the damping of the pendulum vibration absorber (a) at the said greatest excursion point of the pendulum corresponds approximately to the damping in the region of the said passage through the zero point or is greater than in the region of the passage through the zero point, or (b) is constant or approximately constant over the entire excursion range of the pendulum. (ii) a pre- and post-cylinder region and (iii) overflow devices and/or back-flow devices, which return the hydraulic fluid displaced by the moved piston behind the piston,
An ophthalmic visualization system , comprising: a first lens positioned relative to a surgical microscope in a manner facilitating viewing of a central region of a retina through the surgical microscope during a surgical procedure, the first lens being positionable in an optical path between an eye and the surgical microscope during the surgical procedure; characterized in that the ophthalmic visualization system further comprises a second lens selectively positionable relative to the surgical microscope and the first lens in a manner facilitating viewing of a peripheral region of the retina of the eye during the surgical procedure, the second lens selectively positionable in the optical path such that the peripheral region is selectively viewable without changing the position of the first lens during the surgical procedure; wherein the first lens is an indirect non-contact lens ; wherein the second lens is a prismatic off-axis lens ; and wherein the second lens is aligned with and rotatable about an alignment axis of the surgical microscope such that different portions of the peripheral region are selectively viewable. a first lens positioned relative to a surgical microscope in a manner facilitating viewing of a central region of a retina through the surgical microscope during a surgical procedure, the first lens being positionable in an optical path between an eye and the surgical microscope during the surgical procedure; characterized in that the ophthalmic visualization system further comprises a second lens selectively positionable relative to the surgical microscope and the first lens in a manner facilitating viewing of a peripheral region of the retina of the eye during the surgical procedure, the second lens selectively positionable in the optical path such that the peripheral region is selectively viewable without changing the position of the first lens during the surgical procedure; wherein the first lens is an indirect non-contact lens ; wherein the second lens is a prismatic off-axis lens ; and wherein the second lens is aligned with and rotatable about an alignment axis of the surgical microscope such that different portions of the peripheral region are selectively viewable.
A process automation system comprising: a cell transfer unit configured to transfer battery cells ; a cell inspection unit configured to measure an open circuit voltage of each battery cell in units of a preset number of battery cells and sort out qualified battery cells and defective battery cells ; a frame transfer unit configured to transfer module frames of a battery module to insert the qualified battery cells ; a cell discharging unit configured to load and discharge the defective battery cells ; characterized in that the process automation system comprises a gripper unit configured to pick up one or more battery cells from the cell transfer unit , the cell inspection unit , the frame transfer unit , and the cell discharging unit , and transport the one or more battery cells to another device. a cell transfer unit configured to transfer battery cells ; a cell inspection unit configured to measure an open circuit voltage of each battery cell in units of a preset number of battery cells and sort out qualified battery cells and defective battery cells ; a frame transfer unit configured to transfer module frames of a battery module to insert the qualified battery cells ; a cell discharging unit configured to load and discharge the defective battery cells ; characterized in that the process automation system comprises a gripper unit configured to pick up one or more battery cells from the cell transfer unit , the cell inspection unit , the frame transfer unit , and the cell discharging unit , and transport the one or more battery cells to another device.
An image processing apparatus comprising: a data obtaining unit configured to obtain volume data that contains a target volume; a depth-data obtaining unit configured to obtain depth data that indicates a depth to a surface of the target volume from an image plane; an image processing unit configured to obtain processed volume data by processing the volume data based on the depth data, and obtain a rendered image based on the processed volume data; a display unit configured to display the rendered image, and an input unit configured to receive an edit request to edit the rendered image from a user, wherein the image processing unit is further configured to divide the volume data into the target volume and a non-target volume on a border of the surface of the target volume obtained based on the depth data, and obtain the processed volume data by removing the non-target volume from the volume data, wherein the image processing unit is further configured to obtain an editing area (EA) within the rendered image based on the edit request, establish a deletion volume corresponding to the editing area (EA) in the processed volume data based on the depth data, remove the deletion volume from the processed volume data to obtain edited volume data, and obtain an edited rendered image based on the edited volume data, wherein the display unit is configured to display the edited rendered image, and wherein a bottom depth of the deletion volume from the image plane is deeper than the depth to the surface of the target volume. a data obtaining unit configured to obtain volume data that contains a target volume; a depth-data obtaining unit configured to obtain depth data that indicates a depth to a surface of the target volume from an image plane; an image processing unit configured to obtain processed volume data by processing the volume data based on the depth data, and obtain a rendered image based on the processed volume data; a display unit configured to display the rendered image, and an input unit configured to receive an edit request to edit the rendered image from a user, wherein the image processing unit is further configured to divide the volume data into the target volume and a non-target volume on a border of the surface of the target volume obtained based on the depth data, and obtain the processed volume data by removing the non-target volume from the volume data, wherein the image processing unit is further configured to obtain an editing area (EA) within the rendered image based on the edit request, establish a deletion volume corresponding to the editing area (EA) in the processed volume data based on the depth data, remove the deletion volume from the processed volume data to obtain edited volume data, and obtain an edited rendered image based on the edited volume data, wherein the display unit is configured to display the edited rendered image, and wherein a bottom depth of the deletion volume from the image plane is deeper than the depth to the surface of the target volume.
Cucumber plant of the long cucumber type comprising the compact gene obtainable from seeds deposited under NCIMB number 41266 in heterozygous form, which cucumber plant - owing to the expression of this compact gene - is different from the long cucumber plant type lacking the compact gene, by comprising a combination of the following phenotypical characteristics: shorter lateral shoots, shorter internodes, smaller leaves, smaller flowers and shorter fruits, and wherein the compact gene is flanked by AFLP marker E14/M61_M873.6, amplified with primer pair SEQ ID NO: 3 and SEQ ID NO: 8, and AFLP marker E19/M50_M280.2, amplified with primer pair SEQ ID NO: 4 and SEQ ID NO: 9. which cucumber plant - owing to the expression of this compact gene - is different from the long cucumber plant type lacking the compact gene, by comprising a combination of the following phenotypical characteristics: shorter lateral shoots, shorter internodes, smaller leaves, smaller flowers and shorter fruits, and wherein the compact gene is flanked by AFLP marker E14/M61_M873.6, amplified with primer pair SEQ ID NO: 3 and SEQ ID NO: 8, and AFLP marker E19/M50_M280.2, amplified with primer pair SEQ ID NO: 4 and SEQ ID NO: 9.
Method for producing water with reduced lime scale, in particular calcium carbonate, using electrolysis of the water to be treated, where the water is the electrolyte, characterised in that it uses a device comprising a series of plane and parallel cathodes and anodes arranged alternatingly, an air inlet , at least one manifold connected to said air inlet and a plurality of diffusers connected to said manifold and provided with holes through which air is injected, said cathodes being formed of a stainless steel sheet provided with a fold sandwiching the support of said cathode and with a crease parallel to the lower edge of said cathode and at a small distance from said edge, where said method comprises a step during which there is removal of the lime scale deposited on the cathodes during said electrolysis, by vibration of said cathodes, said vibration being implemented thanks to an injection of air at the level of said cathodes, below these latter, and where the arrival rate of the air on the cathodes is between 10 and 20 m/s, and preferably at 15 m/s.
A method of protecting a device, applied to an edge security device , the method comprising: obtaining a plurality of pieces of first security event information generated during operation of the edge security device; performing statistical analysis on the plurality of pieces of first security event information to obtain first statistical analysis information; transmitting the first statistical analysis information to a central security device , so that the central security device generates a first target protection template based on the first statistical analysis information; wherein the first target protection template includes a security protection strategy generated based on the first statistical analysis information; receiving the first target protection template transmitted by the central security device; and protecting the edge security device based on the security protection strategy in the first target protection template. obtaining a plurality of pieces of first security event information generated during operation of the edge security device; performing statistical analysis on the plurality of pieces of first security event information to obtain first statistical analysis information; transmitting the first statistical analysis information to a central security device , so that the central security device generates a first target protection template based on the first statistical analysis information; wherein the first target protection template includes a security protection strategy generated based on the first statistical analysis information; receiving the first target protection template transmitted by the central security device; and protecting the edge security device based on the security protection strategy in the first target protection template.
A method of forming a component (14; 36; 60, 62, 64; 120) of an article (10; 100), the method comprising: decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing arranged foam particles within a target area which is a portion (121a, 121b, 121c, 122, 123; 124a, 124b, 124c) of the layer of the plurality of foam particles; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles. decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing arranged foam particles within a target area which is a portion (121a, 121b, 121c, 122, 123; 124a, 124b, 124c) of the layer of the plurality of foam particles; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles.