mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a sliding contact which is formed from a machine element (1, 1 ') and at least one further machine element, wherein a sliding surface is provided on the machine element , in particular a cam follower, for sliding use in contact with the at least one further machine element, the at least one further machine element sliding over the sliding surface in a sliding direction (SD), wherein the machine element , on at least part of its surface , is first provided with a coating (4, 4 '), into which a surface structure is subsequently introduced by means of laser interference structuring, wherein, when viewed perpendicularly to a coating surface of the coating (4, 4 '), the surface structure comprising a number of self-contained structural elements is formed, characterised in that a higher number of structural elements of the surface structure is provided in areas of the sliding surface , the higher a sliding speed used for the at least one further machine element in this area of the sliding surface .
Vehicle , wherein the vehicle usually has at least one attachment part which is attached to its outer shell , - with a High-Power Electro-Magnetics System (HPEM) which has at least one HPEM antenna for emitting HPEM pulses , characterized in that the vehicle has at least one dummy attachment part which simulates the attachment part with a consistent external appearance and which contains or is at least one of the antennas , - wherein the dummy is attached to the outer shell of the vehicle instead of the usually existing attachment part or in addition to it. - with a High-Power Electro-Magnetics System (HPEM) which has at least one HPEM antenna for emitting HPEM pulses , characterized in that the vehicle has at least one dummy attachment part which simulates the attachment part with a consistent external appearance and which contains or is at least one of the antennas , - wherein the dummy is attached to the outer shell of the vehicle instead of the usually existing attachment part or in addition to it.
A spherical particle between 50 - 300 μM in diameter generated from a material consisting of decellularized omentum, wherein the particle encapsulates at least one viable, intact biological cell.
An antenna apparatus, comprising a first feeding branch circuit (k11), a second feeding branch circuit (k12), and a radiator connected between the first feeding branch circuit and the second feeding branch circuit, wherein the first feeding branch circuit comprises a first feedpoint and a first filter circuit electrically connected between the first feedpoint and the radiator, and the first feedpoint is configured to feed a signal of a first frequency band; the second feeding branch circuit comprises a second feedpoint and a second filter circuit electrically connected between the second feedpoint and the radiator, and the second feedpoint is configured to feed a signal of a second frequency band; the first filter circuit is configured to: allow the signal of the first frequency band to pass through, and ground the signal of the second frequency band; and the second filter circuit is configured to: allow the signal of the second frequency band to pass through, and ground the signal of the first frequency band; further comprising a duplexer , wherein the duplexer comprises an input port , a first output port , and a second output port , the first output port is configured as the first feedpoint, the second output port is configured as the second feedpoint, the first filter circuit is electrically connected to the first output port, the second filter circuit is electrically connected to the second output port, and the antenna apparatus further comprises a general feedpoint, wherein the general feedpoint is electrically connected to the input port. the first feeding branch circuit comprises a first feedpoint and a first filter circuit electrically connected between the first feedpoint and the radiator, and the first feedpoint is configured to feed a signal of a first frequency band; the second feeding branch circuit comprises a second feedpoint and a second filter circuit electrically connected between the second feedpoint and the radiator, and the second feedpoint is configured to feed a signal of a second frequency band; the first filter circuit is configured to: allow the signal of the first frequency band to pass through, and ground the signal of the second frequency band; and the second filter circuit is configured to: allow the signal of the second frequency band to pass through, and ground the signal of the first frequency band; further comprising a duplexer , wherein the duplexer comprises an input port , a first output port , and a second output port , the first output port is configured as the first feedpoint, the second output port is configured as the second feedpoint, the first filter circuit is electrically connected to the first output port, the second filter circuit is electrically connected to the second output port, and the antenna apparatus further comprises a general feedpoint, wherein the general feedpoint is electrically connected to the input port.
A damping device for damping an opening and/or a closing movement of a furniture fitting, comprising: - at least two damping components configured to be moved relative to one another upon a damping hub, - a pivotally mounted actuating element operatively connected to one of the damping components upon the damping hub, - a return mechanism for moving the actuating element into an initial position for the next damping hub after damping has been effected, - an adjustment device for adjusting a location of the initial position of the actuating element , so that the return hub of the actuating element can be adjustably limited by the adjustment device , wherein the adjustment device includes a switch configured to be manually operated, the switch has an arresting element , and the actuating element can be arrested by the arresting element , characterized in that the switch is linearly displaceable. - at least two damping components configured to be moved relative to one another upon a damping hub, - a pivotally mounted actuating element operatively connected to one of the damping components upon the damping hub, - a return mechanism for moving the actuating element into an initial position for the next damping hub after damping has been effected, - an adjustment device for adjusting a location of the initial position of the actuating element , so that the return hub of the actuating element can be adjustably limited by the adjustment device , wherein the adjustment device includes a switch configured to be manually operated, the switch has an arresting element , and the actuating element can be arrested by the arresting element ,
A computer implemented method, comprising: obtaining acquired data for a region of interest; determining a rock type of the region of interest; obtaining a selection of a plurality of modules based on the rock type; generating , using the acquired data and an interpolator from the plurality of modules, a wellbore image of the region of interest, wherein the interpolator generates interpolated data between data points among the acquired data in the wellbore image ; determining , using a quantifier from the plurality of modules, a core characterization of the region of interest, wherein the core characterization describes an integration of a plurality of wellbore data types including at least textural analysis parameters, grain size sorting, heterogeneity analysis, or lithology analysis; and generating , using the core characterization and the wellbore image, a digital core construction of the region of interest, wherein the digital core construction describes a plurality of subterranean formation properties of the region of interest; characterized by using the output of a virtual core generator to aid in the selection of locations to sample sidewall core ; selecting locations to sample sidewall core ; and validating and calibrating the core characterization using the sampled sidewall core, taken at discrete locations in the wellbore wall. obtaining acquired data for a region of interest; determining a rock type of the region of interest; obtaining a selection of a plurality of modules based on the rock type; generating , using the acquired data and an interpolator from the plurality of modules, a wellbore image of the region of interest, wherein the interpolator generates interpolated data between data points among the acquired data in the wellbore image ; determining , using a quantifier from the plurality of modules, a core characterization of the region of interest, wherein the core characterization describes an integration of a plurality of wellbore data types including at least textural analysis parameters, grain size sorting, heterogeneity analysis, or lithology analysis; and generating , using the core characterization and the wellbore image, a digital core construction of the region of interest, wherein the digital core construction describes a plurality of subterranean formation properties of the region of interest; using the output of a virtual core generator to aid in the selection of locations to sample sidewall core ; selecting locations to sample sidewall core ; and validating and calibrating the core characterization using the sampled sidewall core, taken at discrete locations in the wellbore wall.
Integrated electric drive system, comprising: an electric machine , comprising a first housing and an output shaft; a transmission , comprising a second housing and a drive shaft , the transmission receiving an input torque of the output shaft and outputting same via the drive shaft ; a power electronics module , comprising a third housing and an electronic device, the electronic device being configured to provide electric power for the electric machine ; characterized in that the power electronics module is configured to be arranged around the drive shaft . an electric machine , comprising a first housing and an output shaft; a transmission , comprising a second housing and a drive shaft , the transmission receiving an input torque of the output shaft and outputting same via the drive shaft ; a power electronics module , comprising a third housing and an electronic device, the electronic device being configured to provide electric power for the electric machine ; characterized in that the power electronics module is configured to be arranged around the drive shaft .
A semiconductor structure in the form of a photodiode, comprising: a silicon (Si) substrate , a Germanium (Ge) seed layer on the Si substrate and separated from the Si substrate by a first interface , and a Ge epitaxial layer on the Ge seed layer and separated from the Ge seed layer by a second interface , the first and second interfaces sharing a common plane normal (n), wherein the Si substrate and the Ge seed layer have a same first doping type with a first doping level; a locally doped region formed in the Si substrate adjacent to the Ge seed layer and having a second doping type with a second doping level, wherein the locally doped region is designed to reduce leakage currents between the Si substrate and the Ge epitaxial layer when an electrical bias is applied to the structure; a third doped region having the second doping type and formed in the Ge epitaxial layer at a top surface of the Ge epitaxial layer and above the Ge seed layer; fourth doped regions having the first doping type with a third doping level being higher than the first doping level and formed in the Ge epitaxial layer at the top surface of the Ge epitaxial layer and on the side of the third doping region ; and an electrical contact positioned on the third doped region and an electrical contact positioned on each fourth doped region, the electrical contacts forming means for the photodiode. a silicon (Si) substrate , a Germanium (Ge) seed layer on the Si substrate and separated from the Si substrate by a first interface , and a Ge epitaxial layer on the Ge seed layer and separated from the Ge seed layer by a second interface , the first and second interfaces sharing a common plane normal (n), wherein the Si substrate and the Ge seed layer have a same first doping type with a first doping level; a locally doped region formed in the Si substrate adjacent to the Ge seed layer and having a second doping type with a second doping level, wherein the locally doped region is designed to reduce leakage currents between the Si substrate and the Ge epitaxial layer when an electrical bias is applied to the structure; a third doped region having the second doping type and formed in the Ge epitaxial layer at a top surface of the Ge epitaxial layer and above the Ge seed layer; fourth doped regions having the first doping type with a third doping level being higher than the first doping level and formed in the Ge epitaxial layer at the top surface of the Ge epitaxial layer and on the side of the third doping region ; and an electrical contact positioned on the third doped region and an electrical contact positioned on each fourth doped region, the electrical contacts forming means for the photodiode.
A pharmaceutical composition comprising: (a) a rAAV2 variant comprising an amino acid sequence LGETTRP inserted between positions 587 and 588 of capsid protein VP1, and a nucleic acid sequence encoding a polypeptide having at least 95% homology to aflibercept, and (b) a pharmaceutically acceptable excipient; for use in a method of treating an eye condition or disease, the method comprising administering a unit dose of the pharmaceutical composition by intravitreal injection to an eye of a primate subject in need thereof. (a) a rAAV2 variant comprising an amino acid sequence LGETTRP inserted between positions 587 and 588 of capsid protein VP1, and a nucleic acid sequence encoding a polypeptide having at least 95% homology to aflibercept, and (b) a pharmaceutically acceptable excipient;
A filter unit that can be mounted onto a server chassis, the filtering unit comprising: a framework defining a plurality of rows into which rows can be inserted a centrifugal force creating unit; the framework also defining an aperture for receiving a replaceable surface filter ; the replaceable surface filter ; a plurality of centrifugal force filter units in combination with the framework , the centrifugal force filter units positioned upstream of the flow through the filter; wherein each of the centrifugal force filter units comprise a fiber tank with a wall comprising a plurality of orifices and, at least one elastic strip to fill-in a gap between the filter unit and a server when the filter unit is mounted onto the server wherein the at least one elastic strip is sized and shaped to permit cable passage between the server and peripheral equipment. a framework defining a plurality of rows into which rows can be inserted a centrifugal force creating unit; the framework also defining an aperture for receiving a replaceable surface filter ; the replaceable surface filter ; a plurality of centrifugal force filter units in combination with the framework , the centrifugal force filter units positioned upstream of the flow through the filter; wherein each of the centrifugal force filter units comprise a fiber tank with a wall comprising a plurality of orifices and, at least one elastic strip to fill-in a gap between the filter unit and a server when the filter unit is mounted onto the server wherein the at least one elastic strip is sized and shaped to permit cable passage between the server and peripheral equipment.
A method for forming a directional drillhole for hazardous waste storage, comprising: identifying a subterranean formation suitable to store hazardous waste; determining one or more faults that extend through the subterranean formation; forming a directional drillhole that extends from an entry proximate a terranean surface to the subterranean formation, the directional drillhole comprising: a substantially vertical portion coupled to the entry, a transition portion coupled to the substantially vertical portion, and a substantially horizontal portion that is coupled to the transition portion and extends in or under the subterranean formation and parallel to at least one of the one or more faults, wherein the substantially horizontal portion of the directional drillhole comprises a hazardous waste repository configured to store the hazardous waste. identifying a subterranean formation suitable to store hazardous waste; determining one or more faults that extend through the subterranean formation; forming a directional drillhole that extends from an entry proximate a terranean surface to the subterranean formation, the directional drillhole comprising: a substantially vertical portion coupled to the entry, a transition portion coupled to the substantially vertical portion, and a substantially horizontal portion that is coupled to the transition portion and extends in or under the subterranean formation and parallel to at least one of the one or more faults, wherein the substantially horizontal portion of the directional drillhole comprises a hazardous waste repository configured to store the hazardous waste. a substantially vertical portion coupled to the entry, a transition portion coupled to the substantially vertical portion, and a substantially horizontal portion that is coupled to the transition portion and extends in or under the subterranean formation and parallel to at least one of the one or more faults, wherein the substantially horizontal portion of the directional drillhole comprises a hazardous waste repository configured to store the hazardous waste.
A positron emission tomography (PET) imaging system , comprising: a singles unit configured to generate a correction sinogram of random coincidences defined by r ij = 2 t s i s j where r ij is an estimate of the random coincidences in a time period t between singles at detector locations s i and s j ; a delay unit configured to determine delay coincidences in the time period t defined by a delay coincidence time window of unpaired coincidences; a scaling unit configured to scale the correction sinogram of random coincidences based on the delay coincidences; a reconstruction unit configured to iteratively reconstruct one or more images based on the scaled random sinogram and a prompt sinogram for the time period t; and a simulator configured to simulate the singles at each detector location based on the distribution of a radiopharmaceutical, an attenuation map, and at least one PET scanner characteristic, wherein the delay unit includes a sinogram unit configured to generate a delay coincidence sinogram based on the determined delay coincidences, and wherein the scaling unit is configured to match the random correction sinogram to the delay coincidence sinogram based on a scalar and an additive factor transform of the random correction sinogram to match the delay coincidence sinogram. a singles unit configured to generate a correction sinogram of random coincidences defined by r ij = 2 t s i s j where r ij is an estimate of the random coincidences in a time period t between singles at detector locations s i and s j ; a delay unit configured to determine delay coincidences in the time period t defined by a delay coincidence time window of unpaired coincidences; a scaling unit configured to scale the correction sinogram of random coincidences based on the delay coincidences; a reconstruction unit configured to iteratively reconstruct one or more images based on the scaled random sinogram and a prompt sinogram for the time period t; and a simulator configured to simulate the singles at each detector location based on the distribution of a radiopharmaceutical, an attenuation map, and at least one PET scanner characteristic, wherein the delay unit includes a sinogram unit configured to generate a delay coincidence sinogram based on the determined delay coincidences, and wherein the scaling unit is configured to match the random correction sinogram to the delay coincidence sinogram based on a scalar and an additive factor transform of the random correction sinogram to match the delay coincidence sinogram.
An assembly including a plurality of balloons , each of said balloons having at least two first radiopaque markings , and a guidewire including at least two second radiopaque markings corresponding to the at least two first radiopaque markings on each of the plurality of balloons.
A photovoltaic structure comprising a first wall having a convex rotational shape and a second wall defining an inner space therebetween, the first wall being at least partly transparent to solar radiation and comprising an outer face intended to be exposed to solar radiation and an inner face , the second wall comprising an inner face facing the inner face of the first wall, said inner face of the second wall being at least partly reflective with regard to solar radiation, the first wall forming a part of a closed envelope and the second wall being arranged inside said envelope, said structure being characterised in that it comprises a plurality of photovoltaic modules each comprising a plurality of bifacial photovoltaic cells , said modules being arranged on the outer face of the first wall in a plurality of angular sectors (s1), the photovoltaic modules of one and the same angular sector being linked in series, each bifacial cell comprising an outer face intended to be exposed to incident solar radiation and an inner face facing the outer face of the first wall, so that when the structure is exposed to solar radiation, a first portion of the incident radiation is transmitted toward the outer face of said bifacial photovoltaic cells , a second portion (T2) of said incident radiation is transmitted through a part of the first wall and at least partly reflects off the inner face of the second wall, said reflected portion (R3) being transmitted through the first wall toward the inner face of the bifacial photovoltaic cells .
A method of processing food items such as pieces of meat, comprising the steps of: providing a stream of food items by means of a primary conveyor means , • allocating at least partly by means of a computer system one or more of said items to one of at least two workstations where said items are processed, e.g. cut and/or trimmed, resulting in one or more processed items , • registering in said computer system information about a return of at least one of said one or more processed items to said primary conveyor means , and • returning said at least one of said one or more processed items to said primary conveyor means in accordance with said information about a return, wherein the method further comprises keeping track of said items including when they are taken out and put back on the primary conveyor. • allocating at least partly by means of a computer system one or more of said items to one of at least two workstations where said items are processed, e.g. cut and/or trimmed, resulting in one or more processed items , • registering in said computer system information about a return of at least one of said one or more processed items to said primary conveyor means , and • returning said at least one of said one or more processed items to said primary conveyor means in accordance with said information about a return, wherein the method further comprises keeping track of said items including when they are taken out and put back on the primary conveyor.