mhurhangee/patent-ind-claim-en huggingface dataset:
A negative pressure treatment arrangement comprising at least one open-cell contact element , by means of which a negative pressure and/or suction can be generated in a body cavity, wherein the open-cell contact element is designed, at least in sections, in the form of a tube and has an outer and/or inner boundary area surrounding, at least in part, a tube axis, characterised by a tubular hollow body for medical applications in the human or animal body, the outside of which consists of the contact element , wherein the contact element consists of a film that is non-permeable to gases and liquids whose side located on the outside has an open-cell surface , liquids and/or gases being allowed to flow along this surface side , and the side of which that is located on the inside has an open cell-free surface , and the open-cell surface side of the film is connected to a negative pressure-generating system by means of at least one fluid-communicating element , said negative pressure-generating system being configured to apply a negative pressure of up to 200 mmHg to the open-cell film surface .
Sensor device for a motor vehicle for determining parameters of an element which is rotatable in relation to said sensor device and is a steering spindle of a steering column, the sensor device being a torque sensor and/or a rotary angle sensor for the rotatable element, with a sensor housing , with a mount for receiving a steering spindle of a steering column, with an electrical lead, with a printed circuit board , with a connector socket and with a connector element , by way of which the electrical lead is electrically connected to form a plug-in connection with the connector socket on the printed circuit board , the connector socket being provided on the printed circuit board and the connector element being electrically connected directly to the printed circuit board , and the connector socket comprising a conductor track of the printed circuit board that is in electrical contact with the connector element , in particular a conductor track that is etched and/or is formed by means of a photolithographic process, and the connector socket being arranged in an edge region of the printed circuit board , and the connector element reaching around the edge region of the printed circuit board with respective legs , the sensor housing of the sensor device comprising an opening , through which the connector element can be fitted onto the printed circuit board , characterized in that the printed circuit board is arranged in relation to the socket in such a way that the printed circuit board is oriented substantially perpendicularly to the axis of rotation (A) of the rotatable element.
A simulation gun, comprising a barrel , a gun body , and a coupling means , wherein the gun body includes a gun body side connection portion , the barrel includes a barrel side connection portion , and the gun body side connection portion and the barrel side connection portion are connected to each other by an insertion structure, wherein the gun body side connection portion includes an inner peripheral surface which is formed inward from a connection opening, the barrel side connection portion includes an outer peripheral surface which is formed to be fitted to the inner peripheral surface , at least one of the inner peripheral surface and the outer peripheral surface is formed in a tapered shape, and the other of the inner peripheral surface and the outer peripheral surface is formed in a shape which is movable along the tapered shape, and wherein the gun body side connection portion and the barrel side connection portion are configured to be drawn in a direction along a center line by said coupling means , the inner peripheral surface or the outer peripheral surface having the tapered shape and the movable shape are fitted to each other, so that the barrel is centered, wherein both the gun body side connection portion and the barrel side connection portion are formed in tapered shapes and have male and female fitting relationships, characterized in that the barrel side connection portion is configured as a male side, and has a split tubular collet configured as a member separated from the barrel , and a portion for mounting the split tubular collet to be fitted and fastened to the gun body side connection portion which is a female side, the portion for mounting the split tubular collet has an elongated slit in a direction of a central axis of the barrel , and a direction of the elongated slit coincides with a direction of a split tubular portion of the split tubular collet .
A method for crimping a first connector in a second connector , wherein the two connectors are pressed between first and second walls of a mold , these walls each having different shapes in zones following one another along a main axis of the connectors , wherein, in cross-section perpendicular to the main axis , and in each of the zones, each wall is generally W-shaped, and wherein the second connector has ridges on an inner surface.
An eddy-current braking mechanism including: a rotor , rotatable about a rotor axis (X); at least one electrically conductive member coupled to the rotor for rotation therewith, the at least one conductive member being movably attached to the rotor and configured to move relative to the rotor axis (X); a biasing device attached to the at least one conductive member and to the rotor ; at least one magnet configured to apply a magnetic field extending at least partially orthogonal to the plane of rotation of the at least one conductive member , and upon rotation of the rotor the at least one conductive member is configured to move at least partially radially from the rotor axis (X) into the applied magnetic field , the magnetic field applying a non-contact braking force to the at least one conductive member as the at least one conductive member intersects the magnetic field; and wherein the biasing device provides a bias opposing the at least one conductive member movement into the applied magnetic field, and characterised in that : the at least one conductive member is pivotally attached to the rotor and configured to pivot about a pivot axis eccentric to the rotor axis (X), the biasing device is attached to the at least one conductive member at a point distal to the pivot axis and to the rotor ; and the at least one conductive member having a center of mass eccentric to the pivot axis and to the rotor axis (X). a rotor , rotatable about a rotor axis (X); at least one electrically conductive member coupled to the rotor for rotation therewith, the at least one conductive member being movably attached to the rotor and configured to move relative to the rotor axis (X); a biasing device attached to the at least one conductive member and to the rotor ; at least one magnet configured to apply a magnetic field extending at least partially orthogonal to the plane of rotation of the at least one conductive member , and upon rotation of the rotor the at least one conductive member is configured to move at least partially radially from the rotor axis (X) into the applied magnetic field , the magnetic field applying a non-contact braking force to the at least one conductive member as the at least one conductive member intersects the magnetic field; and wherein the biasing device provides a bias opposing the at least one conductive member movement into the applied magnetic field, and characterised in that : the at least one conductive member is pivotally attached to the rotor and configured to pivot about a pivot axis eccentric to the rotor axis (X), the biasing device is attached to the at least one conductive member at a point distal to the pivot axis and to the rotor ; and the at least one conductive member having a center of mass eccentric to the pivot axis and to the rotor axis (X).
A method for manufacturing a vitreous body surgical probe , comprising the steps of: bringing a flat steel plate in contact with an end surface of a steel pipe ; irradiating an energy beam from the steel plate side and moving the point of the energy beam along the circumference of the pipe end surface at the center of the thickness of the pipe so as to weld together the steel plate and the center of the thickness of the pipe ; and temporarily stopping irradiation of the energy beam , and restarting irradiation of the same energy beam from the steel plate side along the outer circumference of the pipe end surface, so as to cut the steel plate along the outer circumference of the pipe . bringing a flat steel plate in contact with an end surface of a steel pipe ; irradiating an energy beam from the steel plate side and moving the point of the energy beam along the circumference of the pipe end surface at the center of the thickness of the pipe so as to weld together the steel plate and the center of the thickness of the pipe ; and temporarily stopping irradiation of the energy beam , and restarting irradiation of the same energy beam from the steel plate side along the outer circumference of the pipe end surface, so as to cut the steel plate along the outer circumference of the pipe .
An information sending method performed by a first access network device, wherein the method comprises: determining (S401) a first timing adjustment amount, wherein the first timing adjustment amount is an adjustment amount between a first timing at which the first access network device sends a first downlink signal to a first terminal device on a first frequency band and a second timing at which the first access network device sends a second downlink signal to the first terminal device on a second frequency band, and the first frequency band and the second frequency band are paired frequency bands; and sending (S402) first indication information to the first terminal device, wherein the first indication information indicates the first timing adjustment amount. determining (S401) a first timing adjustment amount, wherein the first timing adjustment amount is an adjustment amount between a first timing at which the first access network device sends a first downlink signal to a first terminal device on a first frequency band and a second timing at which the first access network device sends a second downlink signal to the first terminal device on a second frequency band, and the first frequency band and the second frequency band are paired frequency bands; and sending (S402) first indication information to the first terminal device, wherein the first indication information indicates the first timing adjustment amount.
Roof box provided with a bottom part , a lid part , as well as a first locking system and a second locking system at some distance from the first locking system, both of which comprise a locking function for locking and unlocking the bottom part with the lid part, the first locking system and the second locking system are connected together by a slidable oblong connecting element , wherein the first or the second locking system is provided with a handgrip coupled to the slidable connecting element , which when operated by a user is turned about an axis from a first position in which the bottom part and the lid part are locked together by means of the first locking system and the second locking system , to a second position whereby the slidable oblong connecting element moves from a locking position to an unlocking position for unlocking the first and the second locking system so that the bottom part is unlocked from the lid part , characterised in that the handgrip is an oblong handgrip which comprises an end located near the axis as well as an end located farther from the axis, wherein in the unlocked position of the first and/or the second locking system the handgrip is blocked in the second position.
In vitro method for detecting avian intestinal dysbiosis, the method comprising determining the presence and/or level of isoleucyl-arginine (C 12 H 25 O 3 N 5 , Mw= 287.20) or isomers thereof in avian sample material; wherein an increased level of isoleucyl-arginine (C 12 H 25 O 3 N 5 , Mw= 287.20) or isomers thereof in comparison to a non-affected control is indicative for avian intestinal dysbiosis.
A recombinant, carboxydotrophic Clostridium bacterium comprising: (a) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1); (b) an acetolactate decarboxylase (EC 4.1.1.5); (c) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1) and an acetolactate synthase (EC 2.2.1.6); (d) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1) and an acetolactate decarboxylase (EC 4.1.1.5); (e) an acetolactate synthase (EC 2.2.1.6) and an acetolactate decarboxylase (EC 4.1.1.5); or (f) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1), an acetolactate synthase (EC 2.2.1.6), and an acetolactate decarboxylase (EC 4.1.1.5); wherein each enzyme is an overexpressed endogenous enzyme or an exogenous enzyme; and wherein the bacterium is selected from the group consisting of Clostridium autoethanogenum, Clostridium ljungdahlii, and Clostridium ragsdalei. (a) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1); (b) an acetolactate decarboxylase (EC 4.1.1.5); (c) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1) and an acetolactate synthase (EC 2.2.1.6); (d) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1) and an acetolactate decarboxylase (EC 4.1.1.5); (e) an acetolactate synthase (EC 2.2.1.6) and an acetolactate decarboxylase (EC 4.1.1.5); or (f) a pyruvate:ferredoxin oxidoreductase (EC 1.2.7.1), an acetolactate synthase (EC 2.2.1.6), and an acetolactate decarboxylase (EC 4.1.1.5);
Assembly for a rotary electric machine , having: - a bearing having a recess for a rolling bearing , - a member for preloading the rolling bearing , intended to be disposed axially between the end wall of the recess and the rolling bearing , and - a member for holding the rolling bearing , intended to be disposed radially between the rolling bearing and a lateral wall of the recess , the member for holding the rolling bearing being arranged so as to make it possible to axially hold the preloading member in the recess of the bearing before the rolling bearing is inserted into the recess , during a phase of assembly of the rotary electric machine , characterized in that the holding member is arranged so as not to be in contact with the preloading member when the rolling bearing is inserted into the recess of the bearing . - a bearing having a recess for a rolling bearing , - a member for preloading the rolling bearing , intended to be disposed axially between the end wall of the recess and the rolling bearing , and - a member for holding the rolling bearing , intended to be disposed radially between the rolling bearing and a lateral wall of the recess , the member for holding the rolling bearing being arranged so as to make it possible to axially hold the preloading member in the recess of the bearing before the rolling bearing is inserted into the recess , during a phase of assembly of the rotary electric machine , characterized in that the holding member is arranged so as not to be in contact with the preloading member when the rolling bearing is inserted into the recess of the bearing . the member for holding the rolling bearing being arranged so as to make it possible to axially hold the preloading member in the recess of the bearing before the rolling bearing is inserted into the recess , during a phase of assembly of the rotary electric machine , characterized in that the holding member is arranged so as not to be in contact with the preloading member when the rolling bearing is inserted into the recess of the bearing .
A container comprising a food-contacting surface wherein at least a portion of the food-contacting surface is coated with a composition comprising a polymer derived from benzene dimethanol having segments of the following structure: where R 1 is phenylene and R 2 is a divalent organic group and n = 5 to 50.
A method for operating a satellite communication system having a plurality of radio frequency terminals, RFTs, each RFT being associated with an antenna , the method comprising: receiving, via a satellite from a first RFT, a first version of a transmit signal having a first piggyback signal phase-locked with a symbol rate of the transmit signal; receiving, via the satellite from a second RFT, a second version of the transmit signal having a second piggyback signal phase-locked with the symbol rate of the transmit signal; determining a phase offset between the first version of the transmit signal and the second version of the transmit signal based on a phase difference between the first piggyback signal and the second piggyback signal; and transmitting an adjustment message to the first RFT and the second RFT based on the phase offset, the adjustment message including a time correction for the first version and the second version. receiving, via a satellite from a first RFT, a first version of a transmit signal having a first piggyback signal phase-locked with a symbol rate of the transmit signal; receiving, via the satellite from a second RFT, a second version of the transmit signal having a second piggyback signal phase-locked with the symbol rate of the transmit signal; determining a phase offset between the first version of the transmit signal and the second version of the transmit signal based on a phase difference between the first piggyback signal and the second piggyback signal; and transmitting an adjustment message to the first RFT and the second RFT based on the phase offset, the adjustment message including a time correction for the first version and the second version.
Use of liposomes for reducing aggregation of the nucleic acids of a control for in vitro use in identifying a plurality of genotypes, the control comprising liposomes and a first mixture of nucleic acids, wherein the first mixture of nucleic acids comprises a first plurality of nucleotide sequences, each nucleotide sequence of the first plurality encodes a genotype of the plurality of genotypes, and the first mixture of nucleic acids is incorporated into the liposomes.
A method of multi-source, multi-type image registration: receiving a plurality of camera images from a plurality of cameras , wherein the plurality of camera images depict a medical device being tested in an in-vitro experimental environment and wherein the plurality of images further depicts a probe of an ultrasound scanner ; receiving a plurality of ultrasound images from the ultrasound scanner , wherein the plurality of ultrasound images depict at least a portion of the medical device in the in-vitro experimental environment; receiving a pre-existing diagram of the probe of the ultrasound scanner; determining a four-dimensional model of at least a portion of the medical device being tested in the in-vitro experimental environment based on the received plurality of camera images; determining a pose of the probe of the ultrasound scanner based on the pre-existing diagram of the probe and the received plurality of camera images; registering the plurality of ultrasound images with the four-dimensional model based on a common coordinate system of the plurality of camera images and the determined pose of the probe. receiving a plurality of camera images from a plurality of cameras , wherein the plurality of camera images depict a medical device being tested in an in-vitro experimental environment and wherein the plurality of images further depicts a probe of an ultrasound scanner ; receiving a plurality of ultrasound images from the ultrasound scanner , wherein the plurality of ultrasound images depict at least a portion of the medical device in the in-vitro experimental environment; receiving a pre-existing diagram of the probe of the ultrasound scanner; determining a four-dimensional model of at least a portion of the medical device being tested in the in-vitro experimental environment based on the received plurality of camera images; determining a pose of the probe of the ultrasound scanner based on the pre-existing diagram of the probe and the received plurality of camera images; registering the plurality of ultrasound images with the four-dimensional model based on a common coordinate system of the plurality of camera images and the determined pose of the probe.
A method for preparing nanographene-supported metal and/or metal oxide nanoparticle composites, in which, - the nanographene has a lateral size between 1 and 200 nm and - the metal or metal oxide nanoparticles have a diameter from 0.5 to 100 nm, comprising the following steps: a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent (A) or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; wherein the process is free of reducing agent other than the nanographenide formed in step a) and wherein the nanographite has a lateral size between 1 and 200 nm. - the nanographene has a lateral size between 1 and 200 nm and - the metal or metal oxide nanoparticles have a diameter from 0.5 to 100 nm, comprising the following steps: a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent (A) or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; a) formation of an organic nanographenide solution by dissolving a nanographite intercalation compound in an aprotic organic solvent (A) or a mixture (A') of aprotic organic solvents under anhydrous inert atmosphere, preferably in the absence of sonication; b) reacting the organic nanographenide solution obtained in step a) with a suitable amount of at least one metal salt and/or at least one metal complex or a mixture of at least two metal salts and/or metal complexes under anhydrous inert atmosphere; thereby leading to a suspension of nanographene-supported metal nanoparticles; and c) optionally oxidizing the metal nanoparticles present on the nanographene support; wherein the process is free of reducing agent other than the nanographenide formed in step a) and wherein the nanographite has a lateral size between 1 and 200 nm.