mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for delivering a device for regulating blood pressure between a patient's left atrium and right atrium, the apparatus comprising: one or more latching legs having a hook portion , the one or more latching legs configured to move from a first position, where the one or more latching legs extend radially outward, to a second position, where the one or more latching legs move radially inward to release the device; wherein at least one of the one or more latching legs has a ramp portion disposed proximal to the hook portion, and further comprising a release ring coupled to the one or more latching legs, the release ring configured to contact an inner section of the ramp portion in the first position and to contact an outer section of the ramp portion in the second position; a pull chord configured to move the one or more latching legs from the first position to the second position, wherein the pull chord is coupled to the release ring and actuation of the pull chord moves the release ring from the first position to the second position, and a catheter having a lumen and a center axis , the one or more latching legs and the pull chord at least partially disposed within the lumen, wherein the hook portion of the one or more latching legs hooks outwardly away from the center axis . one or more latching legs having a hook portion , the one or more latching legs configured to move from a first position, where the one or more latching legs extend radially outward, to a second position, where the one or more latching legs move radially inward to release the device; wherein at least one of the one or more latching legs has a ramp portion disposed proximal to the hook portion, and further comprising a release ring coupled to the one or more latching legs, the release ring configured to contact an inner section of the ramp portion in the first position and to contact an outer section of the ramp portion in the second position; a pull chord configured to move the one or more latching legs from the first position to the second position, wherein the pull chord is coupled to the release ring and actuation of the pull chord moves the release ring from the first position to the second position, and a catheter having a lumen and a center axis , the one or more latching legs and the pull chord at least partially disposed within the lumen, wherein the hook portion of the one or more latching legs hooks outwardly away from the center axis .
A planting machine , comprising: a furrow opener for opening a furrow as the planting machine moves across a field; a seed delivery system configured to deliver seeds to seed locations in the furrow ; a device configured to be actuated to apply a material to the field; a device actuation timing system configured to generate a device actuation timing indicator indicative of a timing for actuating the device to apply the material at material placement locations relative to the seed locations; and a device control signal generator configured to receive the device actuation timing indicator and to generate a device actuation signal based on the device actuation timing indicator to control the device to apply the material to the field, characterized in that the seed locations are indicated by an a priori seed map and the system is configured to controllably dispense or apply material based on those a priori seed locations. a furrow opener for opening a furrow as the planting machine moves across a field; a seed delivery system configured to deliver seeds to seed locations in the furrow ; a device configured to be actuated to apply a material to the field; a device actuation timing system configured to generate a device actuation timing indicator indicative of a timing for actuating the device to apply the material at material placement locations relative to the seed locations; and a device control signal generator configured to receive the device actuation timing indicator and to generate a device actuation signal based on the device actuation timing indicator to control the device to apply the material to the field, characterized in that the seed locations are indicated by an a priori seed map and the system is configured to controllably dispense or apply material based on those a priori seed locations.
Method for regulating the speed of a first vehicle (V1) with at least partially automated driving and comprising means configured to determine the radius of curvature of a future portion that it is about to take on a first traffic lane (VC1) on which it is travelling and adjacent to a second traffic lane (VC2), said method comprising a step (10-80) in which, in the event of detection of a radius of curvature of said future portion representative of a bend said first vehicle (V1) is imposed a deceleration phase up to a first deceleration speed adapted to said radius of curvature, characterized in that in said step (10-80), when said first vehicle (V1) is overtaking a second vehicle (V2) travelling on said second traffic lane (VC2) a current speed of said second vehicle (V2) is determined, and then, if said first deceleration speed is lower than this determined current speed, said first deceleration speed is replaced with a second deceleration speed higher than said determined current speed.
A disc brake pad spring configured to be attached to a disc brake device in which a pair of pads located to sandwich a rotor are supported with respect to a pad support member by inserting in an axial direction pins provided on the pad support member into a through hole formed in a radially inner side part of a peripheral-direction one-side part of a back plate of each of the pair of pads , and configured to elastically press the pair of pads against the pad support member , wherein the disc brake pad spring is formed by a single metal plate, and comprises: a pair of first pressing parts configured to press a peripheral-direction one-side part of an outer peripheral edge of the respective back plates of each of the pair of pads toward a radially inner side; a pair of second pressing parts configured to press a peripheral-direction one-side surface of the respective back plates of each of the pair of pads toward the other peripheral side, and characterised in that the pair of second pressing parts are configured to press the pair of pads in directions away from each other in the axial direction. the disc brake pad spring is formed by a single metal plate, and comprises: a pair of first pressing parts configured to press a peripheral-direction one-side part of an outer peripheral edge of the respective back plates of each of the pair of pads toward a radially inner side; a pair of second pressing parts configured to press a peripheral-direction one-side surface of the respective back plates of each of the pair of pads toward the other peripheral side, and characterised in that the pair of second pressing parts are configured to press the pair of pads in directions away from each other in the axial direction.
Timepiece assembly comprising a timepiece component fastened to an arbor extending in an axial direction (Z), said component comprising a receiving region delimited by at least one positioning surface and also by at least two retaining surfaces , at least one of which is movable against a return force, and which are arranged to clamp said arbor against said positioning surface ; characterized in that said arbor comprises a portion of non-circular cross section, said portion and said receiving region being configured so as to allow the insertion of the arbor in said axial direction when said arbor and said component have a first relative angular orientation and also to clamp said portion against said positioning surface when said component and said arbor have a second relative angular orientation distinct from said first orientation.
A vibration-damping device , comprising outer attachment members configured to be coupled to one of a vibration generator and a vibration receiver, an inner attachment member configured to be coupled to another one of the vibration generator and the vibration receiver, and an elastic body formed by a rubber member and positioned on an outer side of the inner attachment member and coupling the outer attachment members with the inner attachment member , wherein at least one pair of the outer attachment members are disposed on the outer side of the elastic body , with the inner attachment member being interposed between the at least one pair of outer attachment members , each of the at least one pair of outer attachment members includes an attachment surface that is configured to be attached to the one of the vibration generator and the vibration receiver, and the elastic body is tubular and includes a pair of attachment-member-receiving portions , which is used to attach the outer attachment members to the outer circumferential surface of the elastic body , characterized in that the pair of attachment-member-receiving portions is disposed substantially in parallel, with the outer circumferential surface of the elastic body being interposed therebetween, in substantially the middle in the axial direction of the elastic body , in a manner such that the pair of attachment-member-receiving portions has a substantially H-shape in the plan view of the vibration-damping device as viewed from one end surface in the axial direction thereof, each attachment-member-receiving portion is formed in a concave shape that corresponds to an external shape of the corresponding outer attachment member and that is integrated with the elastic body .
Method for producing a structural element , wherein a metal strip is rolled by a number of groups of upper and lower rollers arranged one behind the other in a rolling direction in such a way that the metal strip is produced with a varying thickness, wherein upper and/or lower rollers of each group are provided with profilings that change shape in the rolling direction , and wherein the prefabricated metal strip with a desired final contour is passed on to further processing steps, characterized in that the respectively shape-changing profilings of all the groups have a constant identical volume, wherein the metal strip is prefabricated with the partial contours produced as a result of the shape-changing profilings until the desired final contour is obtained.
A window assembly configured to house a sensor , the window assembly comprising: a transparent pane including an inner surface and an opposing outer surface ; a mounting bracket including a mounting portion coupled to the inner surface of the transparent pane via an adhesive, the mounting portion defining a total mounting area bounded by a perimeter of the mounting portion , and defining a sensor aperture within the perimeter of the mounting portion , wherein the mounting bracket comprises a first plastic material having at least one of an elastic modulus of 1000 MPa or greater and a Shore D hardness of 70 or greater, and wherein the mounting bracket is configured to support the sensor such that the sensor is aligned with the sensor aperture ; and a seal coupled to the mounting bracket along the perimeter of the mounting portion and engaging the inner surface of the transparent pane to inhibit ingress of debris between the mounting portion and the inner surface of the transparent pane , wherein the seal comprises a second plastic material, different than the first plastic material, and having at least one of an elastic modulus of 50 MPa or less and a Shore A hardness of 80 or less. a transparent pane including an inner surface and an opposing outer surface ; a mounting bracket including a mounting portion coupled to the inner surface of the transparent pane via an adhesive, the mounting portion defining a total mounting area bounded by a perimeter of the mounting portion , and defining a sensor aperture within the perimeter of the mounting portion , wherein the mounting bracket comprises a first plastic material having at least one of an elastic modulus of 1000 MPa or greater and a Shore D hardness of 70 or greater, and wherein the mounting bracket is configured to support the sensor such that the sensor is aligned with the sensor aperture ; and a seal coupled to the mounting bracket along the perimeter of the mounting portion and engaging the inner surface of the transparent pane to inhibit ingress of debris between the mounting portion and the inner surface of the transparent pane , wherein the seal comprises a second plastic material, different than the first plastic material, and having at least one of an elastic modulus of 50 MPa or less and a Shore A hardness of 80 or less.
An apparatus configured to detect gas usage by two or more gas appliances, the apparatus comprises: a processing module configured to run on a computational unit ; and a sensing unit configured to be coupled to a gas regulator , the sensing unit comprising: at least one acoustic sensor configured to detect two or more acoustic signals produced by the gas regulator and convert the two or more acoustic signals into one or more first digital acoustic data signals; and a transmitter electrically coupled to the at least one acoustic sensor and configured to transmit the one or more first digital acoustic data signals to the computational unit , wherein: the processing module is configured to use the one or more first digital acoustic data signals to determine the individual gas usage by each of the two or more gas appliances coupled to the gas regulator based upon changes in a magnitude of a resonant frequency intensity of the one or more first digital acoustic data signals. a processing module configured to run on a computational unit ; and a sensing unit configured to be coupled to a gas regulator , the sensing unit comprising: at least one acoustic sensor configured to detect two or more acoustic signals produced by the gas regulator and convert the two or more acoustic signals into one or more first digital acoustic data signals; and a transmitter electrically coupled to the at least one acoustic sensor and configured to transmit the one or more first digital acoustic data signals to the computational unit , wherein: the processing module is configured to use the one or more first digital acoustic data signals to determine the individual gas usage by each of the two or more gas appliances coupled to the gas regulator based upon changes in a magnitude of a resonant frequency intensity of the one or more first digital acoustic data signals. at least one acoustic sensor configured to detect two or more acoustic signals produced by the gas regulator and convert the two or more acoustic signals into one or more first digital acoustic data signals; and a transmitter electrically coupled to the at least one acoustic sensor and configured to transmit the one or more first digital acoustic data signals to the computational unit ,
A chemical absorbent consisting essentially of a hydrated mixture of a pharmaceutically acceptable hydroxide of a Group II metal, and a Group I metal-containing zeolite and water, with other components being present only in amounts of less than 1 % w/w, dry basis wherein - the Group I metal-containing zeolite accounts for between 3% and 6% w/w, on a dry basis - the other components including hydroxides of Group I metals being present in amounts less than 1% w/ w, on a dry basis, including less than 0.5% w/w, on a dry basis, of hydroxides of Group I metals - the remainder dry weight being the pharmaceutically acceptable hydroxide of a Group II metal and - water accounts for 10-25% w/w.
A method of making an antidegradant compound, the method comprising: reacting a p-phenylenediamine corresponding to formula IV: wherein X is selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; with an alpha-hydroxy carbonyl compound corresponding to formula II: wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen, and wherein R 1 and R 3 may optionally be bridged by a polymethylene group; to thereby obtain an enediamine; and reducing the enediamine to thereby obtain a mixture comprising the antidegradant compound according to formula I: wherein X is each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; and wherein R 1 and R 3 may optionally be bridged by a polymethylene group to form a cycloalkyl. reacting a p-phenylenediamine corresponding to formula IV: wherein X is selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; with an alpha-hydroxy carbonyl compound corresponding to formula II: wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen, and wherein R 1 and R 3 may optionally be bridged by a polymethylene group; wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen, and wherein R 1 and R 3 may optionally be bridged by a polymethylene group; to thereby obtain an enediamine; and reducing the enediamine to thereby obtain a mixture comprising the antidegradant compound according to formula I: wherein X is each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; and wherein R 1 and R 3 may optionally be bridged by a polymethylene group to form a cycloalkyl. wherein X is each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; wherein R 1 and R 3 are each independently selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; and wherein R 1 and R 3 may optionally be bridged by a polymethylene group to form a cycloalkyl.
A resin determination method comprising: placing an object on a placement surface with a diffusion reflectance of equal to or greater than 80% in an effective wavelength region of infrared light and with arithmetic mean roughness of equal to or greater than 0.25 μm and equal to or less than 25 μm; irradiating the object with the infrared light; receiving reflected light from the object that has been irradiated with the infrared light, the reflected light including a direct reflection component from the object and a diffused and reflected component from the placement surface; and determining a resin type based on a reflection spectrum or an absorption spectrum obtained by the reflected light, wherein the effective wavelength region of the infrared light is equal to or greater than 1 μm and equal to or less than 3 μm. placing an object on a placement surface with a diffusion reflectance of equal to or greater than 80% in an effective wavelength region of infrared light and with arithmetic mean roughness of equal to or greater than 0.25 μm and equal to or less than 25 μm; irradiating the object with the infrared light; receiving reflected light from the object that has been irradiated with the infrared light, the reflected light including a direct reflection component from the object and a diffused and reflected component from the placement surface; and determining a resin type based on a reflection spectrum or an absorption spectrum obtained by the reflected light, wherein the effective wavelength region of the infrared light is equal to or greater than 1 μm and equal to or less than 3 μm.
Reciprocating saw comprising a housing , a drive motor with an output shaft , a spindle for receiving and driving a tool , in particular a saw blade, and a motion converter for converting a rotational movement of the output shaft into a reciprocating movement of the spindle ; wherein the motion converter comprises an eccentric element which is driven by the output shaft so as to rotate about a rotation axis and has an entrainment part disposed eccentrically to the rotation axis , and an oscillating element which is mounted so as to be pivotable about a bearing point (P) and by way of a coupling point is connected to the spindle ; wherein the oscillating element has a guide element for guiding the entrainment part ; wherein the guide element is disposed between the bearing point (P) and the coupling point , characterized in that the bearing point (P) and the coupling point define a first axis of the oscillating element ; wherein the guide element permits a movement component of the entrainment part directed along the first axis of the oscillating element relative to the oscillating element , and largely prevents a movement component of the entrainment part directed perpendicularly to the first axis of the oscillating element relative to the oscillating element .
An insulation resistance detection circuit, comprising: an alternating-current signal source (U s ), a resonant cavity, a first resistor (R r ), a second resistor (R 1 ), a third resistor (R 2 ), a fourth resistor (R 3 ), a first switch (K 1 ), and a second switch (K 2 ), wherein the alternating-current signal source is sequentially connected to the first resistor, the resonant cavity, the first switch, the second resistor, and the third resistor in series to form a loop, wherein the first resistor is connected to a positive electrode of the alternating-current signal source, and the third resistor is connected to a negative electrode of the alternating-current signal source; a positive electrode of a to-be-detected battery (U) is connected between the first switch and the resonant cavity, and the negative electrode of the alternating-current signal source is connected to ground; one end of the second switch is connected to a negative electrode of the to-be-detected battery, the other end of the second switch is connected to the fourth resistor, and the other end of the fourth resistor is connected to the ground; and when the to-be-detected battery is detected, the alternating-current signal source is configured to provide an alternating-current signal. an alternating-current signal source (U s ), a resonant cavity, a first resistor (R r ), a second resistor (R 1 ), a third resistor (R 2 ), a fourth resistor (R 3 ), a first switch (K 1 ), and a second switch (K 2 ), wherein the alternating-current signal source is sequentially connected to the first resistor, the resonant cavity, the first switch, the second resistor, and the third resistor in series to form a loop, wherein the first resistor is connected to a positive electrode of the alternating-current signal source, and the third resistor is connected to a negative electrode of the alternating-current signal source; a positive electrode of a to-be-detected battery (U) is connected between the first switch and the resonant cavity, and the negative electrode of the alternating-current signal source is connected to ground; one end of the second switch is connected to a negative electrode of the to-be-detected battery, the other end of the second switch is connected to the fourth resistor, and the other end of the fourth resistor is connected to the ground; and when the to-be-detected battery is detected, the alternating-current signal source is configured to provide an alternating-current signal.