mhurhangee/patent-ind-claim-en huggingface dataset:
A data transmission method, wherein the method is applied to a scheduling-free scenario of a base station for a user equipment, UE, and the method comprises: • receiving, by the UE from the base station, coverage indication information that is used to indicate a coverage situation of the UE, wherein the coverage situation is related to a location of the UE in the cell, and the location of the UE in the cell is related to a channel transmission condition of the UE; • obtaining, by the UE, information about a plurality of transmission resource groups, wherein the plurality of transmission resource groups correspond to different transmission resources; • determining, by the UE based on the information about the plurality of transmission resource groups and the coverage situation of the UE, a target resource group corresponding to the coverage situation of the UE from the plurality of transmission resource groups (step 310); and • sending (step 320), by the UE, data to the base station by using a transmission resource in the target resource group. • receiving, by the UE from the base station, coverage indication information that is used to indicate a coverage situation of the UE, wherein the coverage situation is related to a location of the UE in the cell, and the location of the UE in the cell is related to a channel transmission condition of the UE; • obtaining, by the UE, information about a plurality of transmission resource groups, wherein the plurality of transmission resource groups correspond to different transmission resources; • determining, by the UE based on the information about the plurality of transmission resource groups and the coverage situation of the UE, a target resource group corresponding to the coverage situation of the UE from the plurality of transmission resource groups (step 310); and • sending (step 320), by the UE, data to the base station by using a transmission resource in the target resource group.
A lever type connector comprising: a housing to be fitted with a mating housing ; and a lever rotatably mounted to the housing , the housing being fitted with or removed from the mating housing by rotation of the lever ; wherein the lever has a pair of side plate portions and a connection portion that connects the side plate portions , the side plate portions are located outside both side surfaces of the housing , and have cam grooves in which cam pins on both side surfaces of the mating housing are engaged when the lever is rotated, on both side surfaces of the housing , shaft parts protrude toward the side plate portions , the side plate portions have shaft hole parts in which the shaft parts are inserted to allow the lever to be rotated with respect to the housing , each of the shaft hole parts is provided with an insertion hole and regulators , characterised in that : on an end portion of each of the shaft parts to be inserted in each of the shaft hole parts , a pair of projections arranged in non-point symmetry with respect to a circumferential direction of each of the shaft parts , is provided, when the lever is started to be mounted to the housing , the projections are inserted in each of the shaft hole parts through the insertion hole , and the regulators are arranged to face the projections in a direction in which the side plate portions are away from both side surface of the housing , within a rotation range of the lever , the range being involved in fitting and removal of the mating housing and the housing . a housing to be fitted with a mating housing ; and a lever rotatably mounted to the housing , the housing being fitted with or removed from the mating housing by rotation of the lever ; wherein the lever has a pair of side plate portions and a connection portion that connects the side plate portions , the side plate portions are located outside both side surfaces of the housing , and have cam grooves in which cam pins on both side surfaces of the mating housing are engaged when the lever is rotated, on both side surfaces of the housing , shaft parts protrude toward the side plate portions , the side plate portions have shaft hole parts in which the shaft parts are inserted to allow the lever to be rotated with respect to the housing , each of the shaft hole parts is provided with an insertion hole and regulators , characterised in that : on an end portion of each of the shaft parts to be inserted in each of the shaft hole parts , a pair of projections arranged in non-point symmetry with respect to a circumferential direction of each of the shaft parts , is provided, when the lever is started to be mounted to the housing , the projections are inserted in each of the shaft hole parts through the insertion hole , and the regulators are arranged to face the projections in a direction in which the side plate portions are away from both side surface of the housing , within a rotation range of the lever , the range being involved in fitting and removal of the mating housing and the housing .
A method for imaging a region of interest comprising: (a) collecting input radiation from the region of interest through a selected set of a plurality of a predetermined number of aperture arrays, each array having a predetermined arrangement of apertures and collecting the input radiation during a collection time period, wherein said selected set of the aperture arrays and the corresponding collection time periods defining a total effective transmission function of the radiation collection, (b) generating image data from the collected input radiation, said image data comprising said predetermined number of image data pieces corresponding to the input radiation collected through the aperture arrays respectively, (c) processing the image data pieces utilizing said total effective transmission function of the radiation collection, and determining a restored image of the region of interest; wherein said set of aperture arrays is selected such that transmission functions of the aperture arrays have zero values at different spatial frequencies, thereby providing said total effective transmission function having non-null transmission for spatial frequencies being lower than a predetermined maximal spatial frequency. (a) collecting input radiation from the region of interest through a selected set of a plurality of a predetermined number of aperture arrays, each array having a predetermined arrangement of apertures and collecting the input radiation during a collection time period, wherein said selected set of the aperture arrays and the corresponding collection time periods defining a total effective transmission function of the radiation collection, (b) generating image data from the collected input radiation, said image data comprising said predetermined number of image data pieces corresponding to the input radiation collected through the aperture arrays respectively, (c) processing the image data pieces utilizing said total effective transmission function of the radiation collection, and determining a restored image of the region of interest;
An image forming apparatus comprising: a first main body side plate ; a second main body side plate , the first and the second main body side plates being disposed so that image forming means for forming an image on a recording material is interposed between the first and the second main body side plates; a drive side plate attached to the first main body side plate ; a drive gear train , the drive gear train being disposed on a side opposite to a side where the image forming means is disposed across the first main body side plate , the drive gear train being disposed between the drive side plate and the first main body side plate ; and a cable guide configured to guide a cable , the cable guide being disposed between the first main body side plate and the drive side plate , wherein the drive gear train includes a rotary gear configured to rotate, and the cable guide is disposed so that the cable guide overlaps with a part of the rotary gear when viewed in a rotational axis direction of the rotary gear. a first main body side plate ; a second main body side plate , the first and the second main body side plates being disposed so that image forming means for forming an image on a recording material is interposed between the first and the second main body side plates; a drive side plate attached to the first main body side plate ; a drive gear train , the drive gear train being disposed on a side opposite to a side where the image forming means is disposed across the first main body side plate , the drive gear train being disposed between the drive side plate and the first main body side plate ; and a cable guide configured to guide a cable , the cable guide being disposed between the first main body side plate and the drive side plate , wherein the drive gear train includes a rotary gear configured to rotate, and the cable guide is disposed so that the cable guide overlaps with a part of the rotary gear when viewed in a rotational axis direction of the rotary gear.
Cover device for a side sill of a passenger car, comprising an inherently stiff outer cover element which is arranged in a longitudinal region of the side sill beneath a door opening , is pivotable about a bearing axis (L) extending in the vehicle longitudinal direction (x) between a cover position and a release position and covers a side sill part on the bodyshell side to the outside in the vehicle transverse direction (y), a flexible cover element being provided, one end of which is arranged at least indirectly on the inherently stiff cover element and can be shifted together with the inherently stiff cover element during a shifting movement between the cover position and the release position, characterized in that the bearing axis (L) is located in a lower sub-region of the cover element , in that the flexible cover element is arranged in a region of the side sill covered by a vehicle door associated with the door opening when the outer cover element is arranged in the cover position, and in that, when the outer cover element is arranged in the cover position, a gap between the end of the inherently stiff outer cover element having the flexible cover element and another component is covered and a free space arranged thereunder between the inherently stiff cover element located in the cover position and a further cover element or a body part is covered.
A mechanical part provided with a coating of amorphous carbon with at least 70% at. carbon excluding hydrogen and configured to slidingly cooperate with a counterbody part of which the surface hardness is at most two thirds of that of the coating, that coating having a roughness Ra which, measured by profilometry, is greater than 0.025 microns and at most equal to 0.050 microns and, measured with atomic-force microscopy, a micro-roughness which is at least equal to 0.004 microns and at most 0.009 microns.
A micronized starch with an average particle size as assessed by Polarization Intensity Differential Plus Electric Light Scattering according to the method used in Example 8 of the specification of less than 5 μm and a degree of polymerization as determined according to the method in Example 22 of the specification of greater than 100, wherein the micronized starch exhibits at least 20% of the crystallinity as determined by X-ray diffraction of the base granular starch according to the method used in Example 3 of the specification, wherein the micronized starch has an average particle size of at least 20% less than the average particle size of the base granular starch and wherein the micronized starch is obtained by a method comprising the steps of: a) dehydrating a base granular starch to a moisture content of less than 5% on a w/w basis, and b) micronization of the dehydrated base granular starch in an environment containing less than 5% oxygen in a v/v basis to result in a micronized starch, wherein the micronized starch has a moisture content of no greater than 5% on a w/w basis of the base granular starch as determined according to the method used in Example 2 of the specification and wherein the starch is sourced from corn, pea, potato, sweet potato, banana, Barley, wheat, sago, oat, amaranth, tapioca, arrowroot, canna, sorghum, and waxy or high amylose varieties thereof. a) dehydrating a base granular starch to a moisture content of less than 5% on a w/w basis, and b) micronization of the dehydrated base granular starch in an environment containing less than 5% oxygen in a v/v basis to result in a micronized starch,
A composition that is photopolymerizable upon absorption of light, the composition comprising a binder, a polymerizable compound, a sensitizer, a photoinitiator and a polythiol compound, characterized in that the composition comprises with respect to its total solid weight at least 0.01 wt.-% of the polythiol compound and that the polythiol compound is selected from the following formula (I): wherein X 1 means O, S, Se or NR 5 , L 1 means a linking group or a single bond, R 1 to R 5 mutually independent mean H, a non-metal atom substituent or L 1 , m is an integer from 1 to 100, and wherein for the case that m is 1, L 1 comprises at least one additional thiol group; and wherein the thiol groups of formula (I) may also be present in its tautomeric thione form. X 1 means O, S, Se or NR 5 , L 1 means a linking group or a single bond, R 1 to R 5 mutually independent mean H, a non-metal atom substituent or L 1 , m is an integer from 1 to 100,
A system comprising: at least one image capturing device configured to capture an image of an object from a vehicle; at least one display device configured to display the image of the object to an occupant of the vehicle; and at least one control unit configured to: determine whether to alert the occupant to proximity of the object, and in response to determining to alert the occupant to proximity of the object, superimpose, on the image of the object for display on the at least one display device, a moving pattern through which the image of the object remains visible, wherein the at least one control unit is configured to determine whether to alert the occupant to proximity of the object based at least in part on whether the vehicle's speed is greater than a threshold speed. at least one image capturing device configured to capture an image of an object from a vehicle; at least one display device configured to display the image of the object to an occupant of the vehicle; and at least one control unit configured to: determine whether to alert the occupant to proximity of the object, and in response to determining to alert the occupant to proximity of the object, superimpose, on the image of the object for display on the at least one display device, a moving pattern through which the image of the object remains visible, wherein the at least one control unit is configured to determine whether to alert the occupant to proximity of the object based at least in part on whether the vehicle's speed is greater than a threshold speed. determine whether to alert the occupant to proximity of the object, and in response to determining to alert the occupant to proximity of the object, superimpose, on the image of the object for display on the at least one display device, a moving pattern through which the image of the object remains visible, wherein the at least one control unit is configured to determine whether to alert the occupant to proximity of the object based at least in part on whether the vehicle's speed is greater than a threshold speed.
A computer-implemented method for predicting a readout of a second assay from a readout of a first assay, the method comprising: obtaining, for one or more experimental conditions, a readout from the first assay; predicting, using the readout from the first assay, a readout from the second assay using a machine learning model comprising: a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions. obtaining, for one or more experimental conditions, a readout from the first assay; predicting, using the readout from the first assay, a readout from the second assay using a machine learning model comprising: a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions. a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions.
A guidewire assembly, comprising: a guidewire comprising a proximal end , a distal end , a gap formed between the proximal and distal ends, and a diameter; and a self-expanding element disposed approximate to the distal end of the guidewire and having a contracted diameter and an expanded diameter ; wherein the self-expanding element is disposed over the gap and encircles the guidewire; wherein the self-expanding element being expandable under its inherent proprieties, and wherein the expanded diameter is 70% to 280% of the guidewire diameter. a guidewire comprising a proximal end , a distal end , a gap formed between the proximal and distal ends, and a diameter; and a self-expanding element disposed approximate to the distal end of the guidewire and having a contracted diameter and an expanded diameter ; wherein the self-expanding element is disposed over the gap and encircles the guidewire; wherein the self-expanding element being expandable under its inherent proprieties, and wherein the expanded diameter is 70% to 280% of the guidewire diameter.
Liquid container for a motor vehicle, - comprising a storage volume for storing a liquid , - comprising at least one shell , which at least partially delimits the storage volume , - wherein the shell has been produced at least partially in an injection molding process, - the shell has a barrier film , - the shell has a reinforcing element , which is formed at least partially or completely of a thermoplastic fiber-reinforced composite material, characterized in that - the shell has a single-part or multi-part support structure , which is formed at least partially or completely of an injection-molded material, - the barrier film is integrally bonded to the reinforcing element , and - the barrier film and the reinforcing element are each integrally bonded to the support structure . - comprising a storage volume for storing a liquid , - comprising at least one shell , which at least partially delimits the storage volume , - wherein the shell has been produced at least partially in an injection molding process, - the shell has a barrier film , - the shell has a reinforcing element , which is formed at least partially or completely of a thermoplastic fiber-reinforced composite material, characterized in that - the shell has a single-part or multi-part support structure , which is formed at least partially or completely of an injection-molded material, - the barrier film is integrally bonded to the reinforcing element , and - the barrier film and the reinforcing element are each integrally bonded to the support structure .
A transfer film comprising a carrier film and a metallic layer applied thereto, wherein a layer of a lacquer is applied to the metallic layer, wherein the lacquer layer consists of a water-containing or solvent-containing lacquer system based on acrylates or copolymers thereof, characterized in that the lacquer layer based on ethylene-acrylate copolymers is applied as a dispersion stabilized with ammonia and reduces the adhesion of the metallic layer to the carrier film through the metallic layer.
A cord retaining device for retaining an optical fiber or cord at a desired position along an elevated routing path at a user premises, the device comprising: an elongated bend limiter having an open channel that extends between opposite ends of the bend limiter, wherein the channel is dimensioned and arranged to receive a given cord and to allow the cord to slide freely between the ends of the channel; characterized by an elongated retainer constructed and arranged to overlie the bend limiter, and to close the open channel in the bend limiter when the retainer is secured to the bend limiter so that the given cord is confined inside the channel while remaining free to slide between the opposite ends of the bend limiter so that slack can be removed and the cord tightened before embedding the cord in an adhesive deposited along the routing path; a latch arranged to close the cord retaining device by securing the retainer to the bend limiter; the bend limiter and the retainer are configured to conform in shape with one or more surfaces against which the device is installed at the premises; and a tool attachment part fixed on the device, wherein the tool attachment part is formed and dimensioned for receiving a key of an outside installation tool for installing the device at a desired location along the elevated routing path at the premises when the device is closed with the given cord disposed in the channel in the bend limiter of the device. an elongated bend limiter having an open channel that extends between opposite ends of the bend limiter, wherein the channel is dimensioned and arranged to receive a given cord and to allow the cord to slide freely between the ends of the channel; characterized by an elongated retainer constructed and arranged to overlie the bend limiter, and to close the open channel in the bend limiter when the retainer is secured to the bend limiter so that the given cord is confined inside the channel while remaining free to slide between the opposite ends of the bend limiter so that slack can be removed and the cord tightened before embedding the cord in an adhesive deposited along the routing path; a latch arranged to close the cord retaining device by securing the retainer to the bend limiter; the bend limiter and the retainer are configured to conform in shape with one or more surfaces against which the device is installed at the premises; and a tool attachment part fixed on the device, wherein the tool attachment part is formed and dimensioned for receiving a key of an outside installation tool for installing the device at a desired location along the elevated routing path at the premises when the device is closed with the given cord disposed in the channel in the bend limiter of the device.