mhurhangee/patent-ind-claim-en huggingface dataset:
An objective lens unit for a liquid immersion microscope comprising a supply mechanism , a discharge mechanism , and a controller that controls operations of the supply mechanism and the discharge mechanism , the objective lens unit comprising: a first liquid passage in a pipe shape including a supply port disposed on a lens surface (111a-1) of a lens at a closest side to an observing object, the first liquid passage being coupled to an outside of the objective lens unit ; a second liquid passage in a pipe shape disposed independently from the first liquid passage , the second liquid passage including a suction port disposed at a position adjacent to the supply port of the first liquid passage on the lens surface (111a-1), the second liquid passage being coupled to the outside of the objective lens unit ; and a first depression (111a-3) formed on the lens surface (111a-1) to dispose the supply port of the first liquid passage and the suction port of the second liquid passage , wherein the first liquid passage is a flow passage via which the supply mechanism supplies the immersion liquid to the lens surface (111a-1), and the second liquid passage is a flow passage via which the discharge mechanism suctions and discharges the immersion liquid that flows out of the supply port of the first liquid passage simultaneously with the flow out when the flow out is started before the immersion liquid reaches an optical range (111à-2) in the lens surface (111a-1) . a first liquid passage in a pipe shape including a supply port disposed on a lens surface (111a-1) of a lens at a closest side to an observing object, the first liquid passage being coupled to an outside of the objective lens unit ; a second liquid passage in a pipe shape disposed independently from the first liquid passage , the second liquid passage including a suction port disposed at a position adjacent to the supply port of the first liquid passage on the lens surface (111a-1), the second liquid passage being coupled to the outside of the objective lens unit ; and a first depression (111a-3) formed on the lens surface (111a-1) to dispose the supply port of the first liquid passage and the suction port of the second liquid passage , wherein the first liquid passage is a flow passage via which the supply mechanism supplies the immersion liquid to the lens surface (111a-1), and the second liquid passage is a flow passage via which the discharge mechanism suctions and discharges the immersion liquid that flows out of the supply port of the first liquid passage simultaneously with the flow out when the flow out is started before the immersion liquid reaches an optical range (111à-2) in the lens surface (111a-1) .
A wall element device having at least one display area for a screen and a wall panel realizing a glass outer surface on the side of the user, the wall panel being provided with a mirroring and/or a decorative pattern by mirroring, full or partial surface painting, underlaying, etching, sandblasting, printing and/or vaporizing, in particular on the reverse side opposite the outer surface, the display area being realized as at least one cutout in the mirroring or the pattern, a flat screen for electronic image display through the glass outer surface being assigned to the cutout on the reverse side, detector means being assigned to the cutout in an adjacent manner on the reverse side, the detector means being designed for detecting a pattern image and/or an HF resonance signal of an object held next to the cutout in a preferably contactless manner, and electronic control means assigned to the flat screen interacting with the detector means in such a manner that, in response to a detection of a predefined pattern image and/or resonance signal, the control means cause the generation of a confirmation and/or receipt signal acting through the wall panel , characterized in that the visual-optical detector means are designed for carrying out an image capture of the object on the basis of which the generation of the confirmation or receipt signal is caused.
A method of loading a plant picornavirus, comprising contacting a plant picornavirus including a nucleic acid in solution with a molar excess of at least 500 fold of a cargo molecule that has a molecular weight from 100 to 5000 daltons and has an affinity for nucleic acid to non-covalently load the icosahedral capsule of the plant picornavirus with the cargo molecule , wherein the cargo molecule having an affinity for nucleic acid is loaded using diffusion, and purifying the loaded plant picornavirus.
A window cleaning robot , comprising: a window cleaning robot body ; a detecting module disposed on the window cleaning robot body and configured to detect an environment outside the window cleaning robot body ; a controlling device connected to the detecting module and configured to control an action of the window cleaning robot body based on a data detected by the detecting module characterized in that the window cleaning robot further comprises a casing formed with a suction inlet on a bottom wall thereof; a window cleaning component disposed on the bottom wall and configured to surround the suction inlet ; and a fan disposed within the casing and connected to the controlling device , and configured to be controlled by the controlling device to withdraw the air from a chamber defined by the window cleaning component, the bottom wall together with a window to be cleaned through the suction inlet , so as to enable the window cleaning robot body to adhere to the window to be cleaned. a window cleaning robot body ; a detecting module disposed on the window cleaning robot body and configured to detect an environment outside the window cleaning robot body ; a controlling device connected to the detecting module and configured to control an action of the window cleaning robot body based on a data detected by the detecting module characterized in that the window cleaning robot further comprises a casing formed with a suction inlet on a bottom wall thereof; a window cleaning component disposed on the bottom wall and configured to surround the suction inlet ; and a fan disposed within the casing and connected to the controlling device , and configured to be controlled by the controlling device to withdraw the air from a chamber defined by the window cleaning component, the bottom wall together with a window to be cleaned through the suction inlet , so as to enable the window cleaning robot body to adhere to the window to be cleaned.
A method in a network component for adaptable traffic engineering, TE, configuration in software defined networking, SDN, the method comprising: receiving at the network component TE configuration information, wherein the TE configuration information comprises information about a change in radio access network, RAN, conditions and a change in at least one of network conditions, a TE algorithm, user equipment, UE, information, and the network component; dynamically changing, at the network component, the TE configuration in accordance with the change in the RAN conditions and the change in at least one of network conditions, the TE algorithm, UE information, and the network component; and transmitting the configuration information to a TE determination unit for use in making a TE decision matching current network conditions. receiving at the network component TE configuration information, wherein the TE configuration information comprises information about a change in radio access network, RAN, conditions and a change in at least one of network conditions, a TE algorithm, user equipment, UE, information, and the network component; dynamically changing, at the network component, the TE configuration in accordance with the change in the RAN conditions and the change in at least one of network conditions, the TE algorithm, UE information, and the network component; and transmitting the configuration information to a TE determination unit for use in making a TE decision matching current network conditions.
A remotely operated vehicle for an automated storage and retrieval system , the remotely operated vehicle for moving a product item between a storage container stored in an automated storage and retrieval grid , and a further container , wherein the automated storage and retrieval grid is configured to store a plurality of stacks of storage containers ; and where the remotely operated vehicle comprises: - a vehicle body ; - a wheel arrangement connected to the vehicle body , the wheel arrangement configured to move the remotely operated vehicle along a rail system of the automated storage and retrieval system ; - a picking system for moving the product item between the storage container and the further container ; wherein: - the vehicle comprises a container lifting device configured to carry the further container ; - the picking system comprises a picking arm having a first end connected to the vehicle body and a second end ; - the picking system comprises a holding mechanism for releasably holding of the product item , the holding mechanism being provided in the second end of the picking arm ; characterized in that: the container lifting device is arranged as a cantilever structure (33a; 51) fixed to the vehicle body , where the container lifting device comprises a container lifting frame with a connection interface (CI) for connection to and disconnection from the further container provided below the cantilever structure (33a; 51). - a vehicle body ; - a wheel arrangement connected to the vehicle body , the wheel arrangement configured to move the remotely operated vehicle along a rail system of the automated storage and retrieval system ; - a picking system for moving the product item between the storage container and the further container ; - the vehicle comprises a container lifting device configured to carry the further container ; - the picking system comprises a picking arm having a first end connected to the vehicle body and a second end ; - the picking system comprises a holding mechanism for releasably holding of the product item , the holding mechanism being provided in the second end of the picking arm ;
A method of making tissue paper in which a fibrous web (W) is formed in a forming section and transferred to a Yankee drying cylinder in a non-dewatering transfer nip (TN) formed between the Yankee drying cylinder and a shoe roll , the Yankee drying cylinder having a cylindrical outer surface and being arranged to be rotatable about an axis of rotation (A), the shoe roll comprising a shoe that is arranged to act against the Yankee drying cylinder , and the shoe roll further comprising a rotatable flexible jacket that is arranged to run in a loop around the shoe , in which method a carrier fabric runs in a loop around the shoe roll and follows the fibrous web (W) into the transfer nip (TN), the carrier fabric having a structured surface facing the fibrous web (W) such that a three-dimensional pattern can be imprinted into the fibrous web (W) by the carrier fabric and the structured surface of the carrier fabric having land areas and open areas , and wherein the method comprises forming the transfer nip (TN) between the shoe and the cylindrical outer surface of the Yankee drying cylinder and wherein the length (L) of the transfer nip (TN) in the circumferential direction of the Yankee drying cylinder is in the range of 30 mm - 100 mm and wherein the method comprises application of a chemical coating on the cylindrical outer surface of the Yankee drying cylinder and creping the fibrous web (W) from the cylindrical outer surface of the Yankee drying cylinder , characterized in that the land areas of the structured surface of the carrier fabric constitute 15% - 90% of the total surface area of that side of the carrier fabric that faces the fibrous web (W) and in that the linear load in the transfer nip is selected such that the peak pressure in the transfer nip (TN) is in the range of 2 MPa - 8MPa when the pressure in the transfer nip (TN) is defined as the force of the linear load in the transfer nip (TN) divided by the sum of the land areas of that part of the carrier fabric that is in the transfer nip (TN) in a given moment.
A mobile device (102; 200; 302) having a processor (220; 312), comprising: an accelerometer (110; 260; 308) configured to generate acceleration data, the acceleration data comprising a plurality of acceleration measurements taken using a plurality of sampling rates that are dynamically determined based on movements of the mobile device; a memory (230; 316) having embodied thereon computer-executable instructions that are configured to, when executed by the processor (220; 312), cause the processor (220; 312) to: obtain the acceleration data from the accelerometer (110; 260; 308); perform a data interpolation process on the acceleration data to generate standardized acceleration data having a fixed sampling rate; and generate, based on the standardized acceleration data, heart sound data comprising data associated with one or more heart sounds. an accelerometer (110; 260; 308) configured to generate acceleration data, the acceleration data comprising a plurality of acceleration measurements taken using a plurality of sampling rates that are dynamically determined based on movements of the mobile device; a memory (230; 316) having embodied thereon computer-executable instructions that are configured to, when executed by the processor (220; 312), cause the processor (220; 312) to: obtain the acceleration data from the accelerometer (110; 260; 308); perform a data interpolation process on the acceleration data to generate standardized acceleration data having a fixed sampling rate; and generate, based on the standardized acceleration data, heart sound data comprising data associated with one or more heart sounds. obtain the acceleration data from the accelerometer (110; 260; 308); perform a data interpolation process on the acceleration data to generate standardized acceleration data having a fixed sampling rate; and generate, based on the standardized acceleration data, heart sound data comprising data associated with one or more heart sounds.
An electric power generator (EPG) comprising at least a first electrode and a second electrode , wherein the electric power generator comprises an active material between said electrodes , said active material comprising at least one oxygen-containing compound selected from Fe 3 O 4 and Fe 2 O 3 , at least one thickener additive selected from the group consisting of agar agar, xanthan gum, methylcellulose, and arabic gum, and at least one plasticizer additive, wherein the particle size of the at least one oxygen-containing compound has an average diameter in the range from 10 nm to 40 μm.
Apparatus for handling bars, comprising: - a store provided with containing elements in each of which a respective bundle (F1, F2, F3) or group of bars (B1, B2, B3) is positioned; - a feed station located downstream of said store , having a work plane and configured to transfer the bars (B1, B2, B3) to a destination station ; - the work plane having a first edge facing toward the destination station and a second edge facing toward said store ; - a removal device of the bars (B1, B2, B3) associated with the feed station and configured to remove the bars (B1, B2, B3) from at least one containing element of the store and to transfer them onto the feed station ; and - movement means of the store suitable to take at least one of said containing elements into correspondence with said removal device , characterized in that - said store is a slider mobile on a guide inclined from the top downward, toward said feed station , the slider being translatable, in one direction or the other, by drive means , and wherein said removal device comprises rotatable arms with a concave shape rotatable around an axis of rotation defined by a rotation shaft substantially aligned and coplanar with said edge of the work plane of the feed station . - a store provided with containing elements in each of which a respective bundle (F1, F2, F3) or group of bars (B1, B2, B3) is positioned; - a feed station located downstream of said store , having a work plane and configured to transfer the bars (B1, B2, B3) to a destination station ; - the work plane having a first edge facing toward the destination station and a second edge facing toward said store ; - a removal device of the bars (B1, B2, B3) associated with the feed station and configured to remove the bars (B1, B2, B3) from at least one containing element of the store and to transfer them onto the feed station ; and - movement means of the store suitable to take at least one of said containing elements into correspondence with said removal device , characterized in that - said store is a slider mobile on a guide inclined from the top downward, toward said feed station , the slider being translatable, in one direction or the other, by drive means , and
A dual-energy detection apparatus , comprising: an X-ray source , configured to send a first X-ray beam to an object to be measured; a scintillation detector , configured to work in an integration mode, and receive a second X-ray beam penetrating through the object to be measured to generate a first electrical signal, wherein the second X-ray beam is formed by the first X-ray beam penetrating through the object to be measured; a Cherenkov detector , configured to be located behind the scintillation detector , work in a counting mode, and characterized in that the Cherenkov detector is configured to receive a third X-ray beam penetrating through the scintillation detector to generate a second electrical signal, wherein the third X-ray beam is formed by the second X-ray beam penetrating through the scintillation detector ; and the dual-energy detection apparatus further comprises: a processor , configured to output image, thickness and material information of the object to be measured according to the first electrical signal and the second electrical signal. an X-ray source , configured to send a first X-ray beam to an object to be measured; a scintillation detector , configured to work in an integration mode, and receive a second X-ray beam penetrating through the object to be measured to generate a first electrical signal, wherein the second X-ray beam is formed by the first X-ray beam penetrating through the object to be measured; a Cherenkov detector , configured to be located behind the scintillation detector , work in a counting mode, and characterized in that the Cherenkov detector is configured to receive a third X-ray beam penetrating through the scintillation detector to generate a second electrical signal, wherein the third X-ray beam is formed by the second X-ray beam penetrating through the scintillation detector ; and the dual-energy detection apparatus further comprises: a processor , configured to output image, thickness and material information of the object to be measured according to the first electrical signal and the second electrical signal.
Electric heating device comprising a housing with a partition wall , which separates a connection chamber from a heating chamber for dissipating heat and from which at least one PTC heating element with a heater casing protrudes in the direction toward said heating chamber , in which heater casing at least one PTC element and conductor tracks that are electrically connected in said connection chamber for energizing said PTC element with different polarities and connected to the latter in an electrically conductive manner are supported in an insulated manner and which is sealed against said partition wall by way of a seal arranged in a receptacle of said partition wall circumferentially surrounding said heater casing , characterized by a press ring arranged in said receptacle and circumferentially surrounding said heater casing and securing said seal in said receptacle .
A medical rubber composition containing: (a) a butyl rubber, (b) a diene-based rubber containing polybutadiene, (c) a peroxide-based crosslinking agent, and (d) a co-crosslinking agent, wherein an amount of (b) the diene-based rubber is 15 parts by mass or more and 90 parts by mass or less in 100 parts by mass of a rubber component composed of (a) the butyl rubber and (b) the diene-based rubber, and a mass ratio ((d)/(c)) of (d) the co-crosslinking agent to (c) the peroxide-based crosslinking agent is 1.2 or more and 25 or less. (a) a butyl rubber, (b) a diene-based rubber containing polybutadiene, (c) a peroxide-based crosslinking agent, and (d) a co-crosslinking agent, wherein an amount of (b) the diene-based rubber is 15 parts by mass or more and 90 parts by mass or less in 100 parts by mass of a rubber component composed of (a) the butyl rubber and (b) the diene-based rubber, and a mass ratio ((d)/(c)) of (d) the co-crosslinking agent to (c) the peroxide-based crosslinking agent is 1.2 or more and 25 or less. wherein an amount of (b) the diene-based rubber is 15 parts by mass or more and 90 parts by mass or less in 100 parts by mass of a rubber component composed of (a) the butyl rubber and (b) the diene-based rubber, and a mass ratio ((d)/(c)) of (d) the co-crosslinking agent to (c) the peroxide-based crosslinking agent is 1.2 or more and 25 or less.
A femoral assembly for a total knee prosthesis, comprising: a first femoral component having condylar portions (52a-b) and an anterior flange portion , the condylar portions (52a-b) and anterior flange portion together define an outer side of the first femoral component for articulating with a tibial prosthesis and an inner bone facing side opposite the outer side, the inner bone facing side defining five intersecting component inner surfaces that each extend from a lateral side of the first femoral component to a medial side thereof; and a first femoral augment having condylar portions (26a-b) and an anterior flange portion , the condylar portions (26a-b) and anterior flange portion of the first femoral augment together define an outer side of the first femoral augment comprised of five intersecting augment outer surfaces , the augment outer surfaces corresponding to the component inner surfaces of the first femoral component , characterised in that the first femoral augment has an inner side comprising no more than three intersecting augment inner surfaces , the augment inner surfaces being configured to correspond to resected surfaces of a distal femur. a first femoral component having condylar portions (52a-b) and an anterior flange portion , the condylar portions (52a-b) and anterior flange portion together define an outer side of the first femoral component for articulating with a tibial prosthesis and an inner bone facing side opposite the outer side, the inner bone facing side defining five intersecting component inner surfaces that each extend from a lateral side of the first femoral component to a medial side thereof; and a first femoral augment having condylar portions (26a-b) and an anterior flange portion , the condylar portions (26a-b) and anterior flange portion of the first femoral augment together define an outer side of the first femoral augment comprised of five intersecting augment outer surfaces , the augment outer surfaces corresponding to the component inner surfaces of the first femoral component , characterised in that the first femoral augment has an inner side comprising no more than three intersecting augment inner surfaces , the augment inner surfaces being configured to correspond to resected surfaces of a distal femur.