mhurhangee/patent-ind-claim-en huggingface dataset:
A physical quantity sensor comprising: a movable element that is shaped into a flat plate, has a plurality of openings in a direction passing through a flat plate surface of the flat plate, and is swingable around an axis of rotation ; the movable element including a first movable element and a second movable element , a support substrate linked to part of the flat plate surface via a column to support the movable element with a gap between the flat plate surface of the movable element and the support substrate ; and a protrusion so provided as to protrude toward the movable element in a region of the support substrate where the protrusion overlaps with the movable element with a gap therebetween when the support substrate is viewed in a direction perpendicular to the flat plate surface, characterised in that , when the support substrate is viewed in the direction perpendicular to the flat plate surface, the openings are provided in a region excluding a D/2-width annular range around an outer circumference of the protrusion , where D represents a maximum outer dimension of the protrusion , wherein the protrusion is provided in a position where a distance between the axis of rotation and the protrusion is smaller than or equal to half of a distance between the axis of rotation and an end of the first movable element in a direction that intersects an axial direction of the axis of rotation. a movable element that is shaped into a flat plate, has a plurality of openings in a direction passing through a flat plate surface of the flat plate, and is swingable around an axis of rotation ; the movable element including a first movable element and a second movable element , a support substrate linked to part of the flat plate surface via a column to support the movable element with a gap between the flat plate surface of the movable element and the support substrate ; and a protrusion so provided as to protrude toward the movable element in a region of the support substrate where the protrusion overlaps with the movable element with a gap therebetween when the support substrate is viewed in a direction perpendicular to the flat plate surface, characterised in that , when the support substrate is viewed in the direction perpendicular to the flat plate surface, the openings are provided in a region excluding a D/2-width annular range around an outer circumference of the protrusion , where D represents a maximum outer dimension of the protrusion , wherein the protrusion is provided in a position where a distance between the axis of rotation and the protrusion is smaller than or equal to half of a distance between the axis of rotation and an end of the first movable element in a direction that intersects an axial direction of the axis of rotation.
A method for securing a luffing jib crane comprising the following steps: - acquiring a jib lifting/lowering setpoint (CO) by means of a lifting speed command manipulator ; - piloting a lifting motor of a lifting winch by a converter that applies to said lifting motor a motor command speed (VCM) as a function of the lifting/lowering setpoint (CO); - driving, in lifting or in lowering, the jib by at least one lifting cable of the lifting winch under the action of the lifting motor applying the motor command speed (VCM) from the converter ; - acquiring, by a control/command system , the motor command speed (VCM) or the lifting/lowering setpoint (CO); - calculating, by the control/command system , a jib lifting/lowering theoretical angular speed (VTH) from the motor command speed (VCM) or from the lifting/lowering setpoint (CO); - acquiring, by the control/command system , a jib angle (AN) measured by an angle sensor ; - calculating, by the control/command system , a jib lifting/lowering actual angular speed (VRE) from the measured jib angle (AN); - comparing, by the control/command system , the jib lifting/lowering actual angular speed (VRE) and the jib lifting/lowering theoretical angular speed (VTH); - commanding the stopping (COM) of the lifting motor by the control/command system according to the result from the comparison between the jib lifting/lowering actual angular speed (VRE) and the jib lifting/lowering theoretical angular speed (VTH). - acquiring a jib lifting/lowering setpoint (CO) by means of a lifting speed command manipulator ; - piloting a lifting motor of a lifting winch by a converter that applies to said lifting motor a motor command speed (VCM) as a function of the lifting/lowering setpoint (CO); - driving, in lifting or in lowering, the jib by at least one lifting cable of the lifting winch under the action of the lifting motor applying the motor command speed (VCM) from the converter ; - acquiring, by a control/command system , the motor command speed (VCM) or the lifting/lowering setpoint (CO); - calculating, by the control/command system , a jib lifting/lowering theoretical angular speed (VTH) from the motor command speed (VCM) or from the lifting/lowering setpoint (CO); - acquiring, by the control/command system , a jib angle (AN) measured by an angle sensor ; - calculating, by the control/command system , a jib lifting/lowering actual angular speed (VRE) from the measured jib angle (AN); - comparing, by the control/command system , the jib lifting/lowering actual angular speed (VRE) and the jib lifting/lowering theoretical angular speed (VTH); - commanding the stopping (COM) of the lifting motor by the control/command system according to the result from the comparison between the jib lifting/lowering actual angular speed (VRE) and the jib lifting/lowering theoretical angular speed (VTH).
A firefighting fluid storage device , characterized by : a box body , wherein the box body comprises an inner cavity and a fluid outlet , the inner cavity is configured to accommodate a firefighting fluid, and the fluid outlet communicates with the inner cavity ; and a gas generation component , wherein the gas generation component is mounted to the box body and configured to release a gas to the inner cavity , wherein when the gas generation component releases the gas, the firefighting fluid moves toward the fluid outlet under an action of the gas; the firefighting fluid storage device further comprises a driving member , and the driving member is located in the inner cavity ; and when the gas generation component releases the gas, the driving member drives the firefighting fluid to move toward the fluid outlet under the action of the gas; the driving member comprises a mounting portion and a deformable portion , the deformable portion is mounted to the mounting portion , and the mounting portion is connected to the box body ; and the deformable portion is a flexible member and is deformable under pressure; the deformable portion separates the inner cavity into a first cavity and a second cavity , the first cavity is configured to accommodate the firefighting fluid, and the second cavity is configured to accommodate the gas generated by the gas generation component , and when the deformable portion is deformed, volumes of the first cavity and the second cavity can be changed. a box body , wherein the box body comprises an inner cavity and a fluid outlet , the inner cavity is configured to accommodate a firefighting fluid, and the fluid outlet communicates with the inner cavity ; and a gas generation component , wherein the gas generation component is mounted to the box body and configured to release a gas to the inner cavity , wherein when the gas generation component releases the gas, the firefighting fluid moves toward the fluid outlet under an action of the gas; the firefighting fluid storage device further comprises a driving member , and the driving member is located in the inner cavity ; and when the gas generation component releases the gas, the driving member drives the firefighting fluid to move toward the fluid outlet under the action of the gas; the driving member comprises a mounting portion and a deformable portion , the deformable portion is mounted to the mounting portion , and the mounting portion is connected to the box body ; and the deformable portion is a flexible member and is deformable under pressure; the deformable portion separates the inner cavity into a first cavity and a second cavity , the first cavity is configured to accommodate the firefighting fluid, and the second cavity is configured to accommodate the gas generated by the gas generation component , and when the deformable portion is deformed, volumes of the first cavity and the second cavity can be changed.
A method for synchronizing configuration data (111 - 222) of components within an industrial plant, the method comprising the steps of: partitioning a network in the industrial plant into a first sub-network and a second sub-network , said sub-networks connected by a network connection , wherein a first component , comprising at least a first configuration data , and a first local server are located in the first sub-network , and a second component , comprising at least a second configuration data , and a second local server are located in the second sub-network ; storing the first configuration data on the first local server and, via the network connection , on the second local server , and storing the second configuration data on the second local server and, via the network connection , on the first local server ; interrupting the network connection ; updating, on the first local server , the first configuration data and the second configuration data ; re-connecting the network connection ; if the first configuration data on the second local server is unchanged, overwriting the first configuration data on the second local server by the updated first configuration data , and if the first configuration data on the second local server has been changed, overwriting the first configuration data on the second local server by the updated first configuration data . partitioning a network in the industrial plant into a first sub-network and a second sub-network , said sub-networks connected by a network connection , wherein a first component , comprising at least a first configuration data , and a first local server are located in the first sub-network , and a second component , comprising at least a second configuration data , and a second local server are located in the second sub-network ; a first component , comprising at least a first configuration data , and a first local server are located in the first sub-network , and a second component , comprising at least a second configuration data , and a second local server are located in the second sub-network ; storing the first configuration data on the first local server and, via the network connection , on the second local server , and storing the second configuration data on the second local server and, via the network connection , on the first local server ; interrupting the network connection ; updating, on the first local server , the first configuration data and the second configuration data ; re-connecting the network connection ; if the first configuration data on the second local server is unchanged, overwriting the first configuration data on the second local server by the updated first configuration data , and if the first configuration data on the second local server has been changed, overwriting the first configuration data on the second local server by the updated first configuration data .
Composition comprising a mixture of apo-transferrin (Apo-Tf) and holo-transferrin (Holo-Tf) for use in treatment of ischemia or oxygen deprivation in a patient prior to surgery, ischemia due to cardiac arrest, ischemia due to thrombotic clots, or ischemia due to traumatic injury wherein said composition is a mixture of apo-transferrin (Apo-Tf) and holo-transferrin (Holo-Tf), in a ratio of 98% Apo-Tf:2% Holo-Tf to 30% Apo-Tf:70% Holo-Tf.
A lid assembly 1 for a drinking container, the lid assembly 1 comprising: - a lid housing 10 comprising a circumferential side wall 13 and a drinking opening 12, - a sealing assembly 20 comprising a sealing element 21 which is moveable between a first, closed position, in which the sealing element 21 is positioned such that the drinking opening 12 is closed, and a second, open position, in which the sealing element 21 is positioned such that the drinking opening 12 is open, - an operating assembly 40 for operating the sealing assembly 20 to move the sealing element 21 between the first position and the second position, and - a mounting member 30 on which the sealing assembly 20 is mounted, and wherein the mounting member 30 is releasably connectable to the lid housing 10, said mounting member 30 comprises a support frame 33, which support frame 33 is slidingly received within said circumferential side wall 13 characterized in that said mounting member 30 is releasably connectable to the lid housing 10 by means of two or more, resilient elements 31, 32, at least two of said resilient elements 31, 32 are arranged centrally and/or symmetrically, and diametrically. - a lid housing 10 comprising a circumferential side wall 13 and a drinking opening 12, - a sealing assembly 20 comprising a sealing element 21 which is moveable between a first, closed position, in which the sealing element 21 is positioned such that the drinking opening 12 is closed, and a second, open position, in which the sealing element 21 is positioned such that the drinking opening 12 is open, - an operating assembly 40 for operating the sealing assembly 20 to move the sealing element 21 between the first position and the second position, and - a mounting member 30 on which the sealing assembly 20 is mounted, and wherein the mounting member 30 is releasably connectable to the lid housing 10,
An engine device characterized in that it comprises an oil pan made of plastic material having a hollow shape containing lubricating oil delimited by a bottom wall , several side walls and upper flanges , the oil pan having at least one exchanger surface that comprises oil circulation means and cooling liquid circulation means, and a heat exchanger in which oil and a cooling liquid circulate, comprising a series of plates characterized in that the series of plates, which are welded in pairs and welded onto the exchanger surface is made of a plastic material.
A transducer modulus , comprising: a supporting substrate ; a cap coupled to the supporting substrate and defining a chamber therewith; a pressure transducer housed in the chamber , having a first sensitive element configured to detect an environmental pressure (P) and generate a first transduced signal as a function of the environmental pressure (P) detected; an acoustic transducer (12") housed in the chamber , having a second sensitive element configured to detect an acoustic wave (S) and generate a second transduced signal as a function of the acoustic wave detected; and a processing chip housed at least in part in the chamber , operatively coupled to the pressure transducer and to the acoustic transducer (12") for receiving the first and second transduced signals, wherein said pressure transducer and said acoustic transducer (12") form a stack, wherein the first sensitive element extends at a distance from, and overlies, the second sensitive element , characterized in that the supporting substrate has a window that faces the pressure transducer and that defines an access opening for the acoustic wave (S) and for the environmental pressure (P); said stack including a cavity between said second sensitive element and said pressure transducer forming, at least in part, a front chamber of the acoustic transducer (12"); and in that the pressure transducer is integrated in a first sensor chip having a through hole adapted to set in fluidic communication the window with the cavity so as to form an access path of the acoustic wave (S) to the second sensitive element . a supporting substrate ; a cap coupled to the supporting substrate and defining a chamber therewith; a pressure transducer housed in the chamber , having a first sensitive element configured to detect an environmental pressure (P) and generate a first transduced signal as a function of the environmental pressure (P) detected; an acoustic transducer (12") housed in the chamber , having a second sensitive element configured to detect an acoustic wave (S) and generate a second transduced signal as a function of the acoustic wave detected; and a processing chip housed at least in part in the chamber , operatively coupled to the pressure transducer and to the acoustic transducer (12") for receiving the first and second transduced signals, wherein said pressure transducer and said acoustic transducer (12") form a stack, wherein the first sensitive element extends at a distance from, and overlies, the second sensitive element , characterized in that the supporting substrate has a window that faces the pressure transducer and that defines an access opening for the acoustic wave (S) and for the environmental pressure (P); said stack including a cavity between said second sensitive element and said pressure transducer forming, at least in part, a front chamber of the acoustic transducer (12"); and in that the pressure transducer is integrated in a first sensor chip having a through hole adapted to set in fluidic communication the window with the cavity so as to form an access path of the acoustic wave (S) to the second sensitive element .
Method for preparation of polymer modified bitumen by modification with waste rubber, consisting of mixing of bitumen with modifier at increased temperature, characterized in that the method comprises three stages: - a bitumen modifier in the form of oil-rubber composition is being obtained in the way that oil and waste rubber particle are mixed together, while in composition the amount of waste rubber is from 80% wt. to 95% wt. and the amount of oil is from 5% wt. to 20% wt.; - the oil-rubber composition obtained in the previous stage, in the amount from 4 % wt. to 20% wt. is mixing with bitumen used in the amount from 77% wt. to 95% wt., the mixing is being performed using conventional mixing means, at temperature 175-185°C; - in the last stage, mixture of bitumen and oil-rubber composition obtained in the previous stage, in the amount from 77% wt. to 95% wt. is mixing with crosslinking component used in the amount from 0,25% wt. to 3% wt., , the mixing is being performed using conventional mixing devices at temperature 175-185°C, further characterized in that : - the waste rubber particle are obtained from recycling of post-consumer tires and are not larger than 1 mm, - the crosslinking component contains free reactive isocyanate groups NCO in its structure, - the oil in the oil rubber composition is castor oil. - a bitumen modifier in the form of oil-rubber composition is being obtained in the way that oil and waste rubber particle are mixed together, while in composition the amount of waste rubber is from 80% wt. to 95% wt. and the amount of oil is from 5% wt. to 20% wt.; - the oil-rubber composition obtained in the previous stage, in the amount from 4 % wt. to 20% wt. is mixing with bitumen used in the amount from 77% wt. to 95% wt., the mixing is being performed using conventional mixing means, at temperature 175-185°C; - in the last stage, mixture of bitumen and oil-rubber composition obtained in the previous stage, in the amount from 77% wt. to 95% wt. is mixing with crosslinking component used in the amount from 0,25% wt. to 3% wt., , the mixing is being performed using conventional mixing devices at temperature 175-185°C, further characterized in that : - the waste rubber particle are obtained from recycling of post-consumer tires and are not larger than 1 mm, - the crosslinking component contains free reactive isocyanate groups NCO in its structure, - the oil in the oil rubber composition is castor oil. - the waste rubber particle are obtained from recycling of post-consumer tires and are not larger than 1 mm, - the crosslinking component contains free reactive isocyanate groups NCO in its structure, - the oil in the oil rubber composition is castor oil.
A seat for a passenger transport vehicle comprising a squab , a backrest placed above the squab, at least one armrest and at least one handrail , wherein the armrest is attached to the squab from a front end below the level of the squab and wherein the handrail is attached to the squab from a squab-connecting end below the level of the squab, characterised in that the seat comprises a common connecting bracket which independently attaches to the squab the front end of the armrest on the one hand and the squab-connecting end of the handrail on the other hand.
A computer-implemented method for generating a composite image, the method comprising: receiving a first image from a camera ; determining that a first region is unblocked in the first image; determining that a second region is blocked in the first image; in response to determining that the second region is blocked in the first image, requesting a second image from the camera ; receiving the second image; determining whether the second region is unblocked in the second image; and in response to determining that the second region is unblocked in the second image, generating a composite image including image data of the second region from the second image and image data of the first region from the first image, wherein the received images and the composite image are broken into a plurality of regions; wherein the composite image starts off blank, to which unblocked image regions are transferred. receiving a first image from a camera ; determining that a first region is unblocked in the first image; determining that a second region is blocked in the first image; in response to determining that the second region is blocked in the first image, requesting a second image from the camera ; receiving the second image; determining whether the second region is unblocked in the second image; and in response to determining that the second region is unblocked in the second image, generating a composite image including image data of the second region from the second image and image data of the first region from the first image, wherein the received images and the composite image are broken into a plurality of regions; wherein the composite image starts off blank, to which unblocked image regions are transferred.
Sectional door, comprising a roller shutter curtain consisting of several transversely extending door sections , which are connected to each other via articulations, and which are movable upwards along two lateral guide tracks by means of guide rollers, as well as an escape door also consisting of several sections, which are connectable to adjacent door sections and lockable in order to open the curtain, and which are unlockable and detachable from those door sections at least one-sidedly in order to open the escape door , characterized in that locking and unlocking of the escape door with the adjacent door sections of the curtain happens automatically, controlled by the distance between the two lateral guide tracks.