mhurhangee/patent-ind-claim-en huggingface dataset:
Movable shading screen configured to be disposed inside an agricultural greenhouse , the shading screen being flexible enough to deform under the action of its weight and being able to shade at least a part of a crop housed in an agricultural greenhouse , characterised: a. in that it is configured to cooperate with a support in order to alternatively present a deployed configuration corresponding to a first shading surface preferably extending primarily in a horizontal plane and a folded configuration corresponding to a second shading surface, smaller than the first shading surface, and b. in that it extends along a main extension surface that comprises at least: • A plurality of photovoltaic films , preferably each photovoltaic film of the plurality of photovoltaic films being flexible enough to deform under the action of its weight; • A plurality of films transparent in relation to sunlight , preferably each transparent film of the plurality of transparent films being flexible enough to deform under the action of its weight, each transparent film of the plurality of transparent films being configured to allow sunlight to pass to at least a portion of the crop ; o Said main extension surface has an alternation of photovoltaic films and transparent films. a. in that it is configured to cooperate with a support in order to alternatively present a deployed configuration corresponding to a first shading surface preferably extending primarily in a horizontal plane and a folded configuration corresponding to a second shading surface, smaller than the first shading surface, and b. in that it extends along a main extension surface that comprises at least: • A plurality of photovoltaic films , preferably each photovoltaic film of the plurality of photovoltaic films being flexible enough to deform under the action of its weight; • A plurality of films transparent in relation to sunlight , preferably each transparent film of the plurality of transparent films being flexible enough to deform under the action of its weight, each transparent film of the plurality of transparent films being configured to allow sunlight to pass to at least a portion of the crop ; • A plurality of photovoltaic films , preferably each photovoltaic film of the plurality of photovoltaic films being flexible enough to deform under the action of its weight; • A plurality of films transparent in relation to sunlight , preferably each transparent film of the plurality of transparent films being flexible enough to deform under the action of its weight, each transparent film of the plurality of transparent films being configured to allow sunlight to pass to at least a portion of the crop ; o Said main extension surface has an alternation of photovoltaic films and transparent films.
A device for closing a container , in particular a piston, for a liquid for determining evaporation properties of the liquid according to at least one standardized test, comprising: at least one temperature measuring system , in particular for measuring a vapor temperature of the liquid, with a temperature sensor with a lower end ; a closure part with a, in particular conically formed, outer surface , designed for contacting a, in particular inner, surface of an opening of the container for closing the container with a through opening , through which a part of the temperature sensor is guided such that the lower end of the temperature sensor is arranged inside the container ; a mechanism, in particular a screw mechanism , for adjusting a position of the lower end of the temperature sensor along a longitudinal direction of the temperature sensor; a support part projecting above the closure part transversely to the longitudinal direction of the temperature sensor over the closure part and/or over a central part , which support part is telescopable into one another with a counterpart of an auxiliary device, wherein the support part or the counterpart are formed as plug element and the support part or the counterpart are formed as sleeve shaped element. at least one temperature measuring system , in particular for measuring a vapor temperature of the liquid, with a temperature sensor with a lower end ; a closure part with a, in particular conically formed, outer surface , designed for contacting a, in particular inner, surface of an opening of the container for closing the container with a through opening , through which a part of the temperature sensor is guided such that the lower end of the temperature sensor is arranged inside the container ; a mechanism, in particular a screw mechanism , for adjusting a position of the lower end of the temperature sensor along a longitudinal direction of the temperature sensor; a support part projecting above the closure part transversely to the longitudinal direction of the temperature sensor over the closure part and/or over a central part , which support part is telescopable into one another with a counterpart of an auxiliary device, wherein the support part or the counterpart are formed as plug element and the support part or the counterpart are formed as sleeve shaped element.
A store merge apparatus comprising: storage means for storing a plurality of entries including a plurality of blocks capable of storing block data, and entry merge state information indicating, for each group into which the plurality of entries are divided, a state of merge in the plurality of entries included in the group , in association with each other; merge means for executing, based on a store command being received from an external apparatus and instructing writing of data to a storage apparatus , merge processing of storing the data in the entry of the storage means , and updating the entry merge state information associated with a group including an entry serving as a target of the merge processing; and output means for selecting a group including a merge-completed entry in which the data are stored in all blocks, based on the entry merge state information , further selecting the merge-completed entry from the selected group , and outputting the selected merge-completed entry to the storage apparatus , wherein the entry merge state information further includes under merge information indicating a group including an under merge entry having a merge rate equal to or larger than a predetermined value, and when a group including the merge-completed entry is not present, the output means selects the group including the under merge entry, based on the under merge information, further selects the under merge entry from the selected group , and outputs the selected under merge entry to the storage apparatus . storage means for storing a plurality of entries including a plurality of blocks capable of storing block data, and entry merge state information indicating, for each group into which the plurality of entries are divided, a state of merge in the plurality of entries included in the group , in association with each other; merge means for executing, based on a store command being received from an external apparatus and instructing writing of data to a storage apparatus , merge processing of storing the data in the entry of the storage means , and updating the entry merge state information associated with a group including an entry serving as a target of the merge processing; and output means for selecting a group including a merge-completed entry in which the data are stored in all blocks, based on the entry merge state information , further selecting the merge-completed entry from the selected group , and outputting the selected merge-completed entry to the storage apparatus , wherein the entry merge state information further includes under merge information indicating a group including an under merge entry having a merge rate equal to or larger than a predetermined value, and when a group including the merge-completed entry is not present, the output means selects the group including the under merge entry, based on the under merge information, further selects the under merge entry from the selected group , and outputs the selected under merge entry to the storage apparatus .
An igniter comprising: a central electrode having a discharge end ; an insulator sleeve surrounding the central electrode ; and a tubular electrode shell surrounding the insulator sleeve and having a forward end projecting beyond the discharge end , wherein the tubular electrode shell comprises an iron-based alloy; characterized in that the igniter further comprises: a protective coating comprising alumina disposed on an outer surface of the forward end of the tubular electrode shell , wherein the protective coating is in contact with the outer surface and a wear-resistant coating disposed on an outer surface of the tubular electrode shell . a central electrode having a discharge end ; an insulator sleeve surrounding the central electrode ; and a tubular electrode shell surrounding the insulator sleeve and having a forward end projecting beyond the discharge end , wherein the tubular electrode shell comprises an iron-based alloy; characterized in that the igniter further comprises: a protective coating comprising alumina disposed on an outer surface of the forward end of the tubular electrode shell , wherein the protective coating is in contact with the outer surface and a wear-resistant coating disposed on an outer surface of the tubular electrode shell .
Method for imparting bacteriostatic or bactericidal properties to the surface of an object consisting of: a) providing an object, the surface of which bears groups comprising at least one oxygen atom; b) depositing, on the surface provided in step (a), a coating based on polymers of polydopamine or of a derivative thereof, carrying at least one -Y function, with Y representing a halogen atom or an -N(R11)(R12) function with R11 and R12, being identical or different, representing a hydrogen atom, an optionally substituted alkyl group, or an optionally substituted aryl group; and c) contacting the coated surface obtained following said step (b) with a solution containing at least one dihalogen and at least one diamine at a temperature higher than ambient temperature, whereby a coating based on polyionene polymers is grafted, covalently, onto said coated surface obtained following said step (b). a) providing an object, the surface of which bears groups comprising at least one oxygen atom; b) depositing, on the surface provided in step (a), a coating based on polymers of polydopamine or of a derivative thereof, carrying at least one -Y function, with Y representing a halogen atom or an -N(R11)(R12) function with R11 and R12, being identical or different, representing a hydrogen atom, an optionally substituted alkyl group, or an optionally substituted aryl group; and c) contacting the coated surface obtained following said step (b) with a solution containing at least one dihalogen and at least one diamine at a temperature higher than ambient temperature, whereby a coating based on polyionene polymers is grafted, covalently, onto said coated surface obtained following said step (b).
Method for managing the braking of an aircraft fitted with undercarriages bearing braked wheels , the method comprising the step of generating braking commands by means of a braking computer for each of the braked wheels as a function of a difference between a peripheral speed of the wheel estimated using a tachometer generating a signal representative of the speed of rotation of the wheel, and a longitudinal speed representative of a longitudinal movement of the wheels in question, characterized in that the longitudinal speed information used for the generation of the braking commands is generated with the help of a signal from a sensor separate from the tachometer disposed at the bottom of the undercarriage close to the braked wheels, making it possible to estimate the longitudinal speed at the level of the wheel which can transiently differ from the longitudinal speed of the aircraft.
A storage system for storing product items , comprising a grid structure , where the grid structure has a top level (L0); a number of first storage bins configured to be stored in vertical stacks in the grid structure , where each first storage bin is configured to contain at least one product item ; a vehicle , arranged to move horizontally at the top level (L0) of the grid structure, and further arranged to pick up, carry, and place the first storage bins at desired locations within the grid structure ; a conveyor system arranged adjacent to the storage grid , characterized in that - the storage system further comprises a robot device comprising a movable arm with a picking mechanism in one end thereof, - the robot device is configured to move a storage item between a first location (A) and a second location (B) by means of its picking mechanism ; wherein the first location (A) is the location of a first storage bin stored at the top level (L0) or the level (L1) directly below the top level (L0) in the storage grid and the second location (B) is the location of the conveyor system . a grid structure , where the grid structure has a top level (L0); a number of first storage bins configured to be stored in vertical stacks in the grid structure , where each first storage bin is configured to contain at least one product item ; a vehicle , arranged to move horizontally at the top level (L0) of the grid structure, and further arranged to pick up, carry, and place the first storage bins at desired locations within the grid structure ; a conveyor system arranged adjacent to the storage grid , characterized in that - the storage system further comprises a robot device comprising a movable arm with a picking mechanism in one end thereof, - the robot device is configured to move a storage item between a first location (A) and a second location (B) by means of its picking mechanism ; - the storage system further comprises a robot device comprising a movable arm with a picking mechanism in one end thereof, - the robot device is configured to move a storage item between a first location (A) and a second location (B) by means of its picking mechanism ; wherein the first location (A) is the location of a first storage bin stored at the top level (L0) or the level (L1) directly below the top level (L0) in the storage grid and the second location (B) is the location of the conveyor system .
Component wall of a hot-gas component for a gas turbine, which, in a double-walled design, comprises an outer wall , which is hotter during operation, and an inner wall , which is colder during operation, and whose interior space arranged therebetween is basically subdivided by partition walls extending between the inner wall and the outer wall, wherein a coolant (KM) is able to flow into the interior space through inlet openings arranged in the inner wall and is able to flow out of the interior space through outlet openings arranged in the outer wall , wherein provision is made in the interior space of at least one first cavity which is directly connected, as an inlet cavity , only to at least one of the inlet openings , without being directly connected to outlet openings , and wherein, immediately adjacent to the at least one inlet cavity , provision is made of at least one second cavity which is directly connected, as an outlet cavity , only to at least one of the outlet openings , without being directly connected to inlet openings , and wherein the partition wall subdividing the respective inlet cavity from the outlet cavity adjacent thereto has at least one through-opening for conducting the coolant (KM) from the respective inlet cavity into the outlet cavity , characterized in that at least one means is provided for increasing the material temperature of the inner wall, and in that the double-walled component wall is of monolithic design. which, in a double-walled design, comprises an outer wall , which is hotter during operation, and an inner wall , which is colder during operation, and whose interior space arranged therebetween is basically subdivided by partition walls extending between the inner wall and the outer wall, wherein a coolant (KM) is able to flow into the interior space through inlet openings arranged in the inner wall and is able to flow out of the interior space through outlet openings arranged in the outer wall , wherein provision is made in the interior space of at least one first cavity which is directly connected, as an inlet cavity , only to at least one of the inlet openings , without being directly connected to outlet openings , and wherein, immediately adjacent to the at least one inlet cavity , provision is made of at least one second cavity which is directly connected, as an outlet cavity , only to at least one of the outlet openings , without being directly connected to inlet openings , and wherein the partition wall subdividing the respective inlet cavity from the outlet cavity adjacent thereto has at least one through-opening for conducting the coolant (KM) from the respective inlet cavity into the outlet cavity , characterized in that at least one means is provided for increasing the material temperature of the inner wall, and in that the double-walled component wall is of monolithic design.
A host device, comprising: a digital camera on a backside of the host device, the digital camera comprising: a) a Wide camera configured to provide a Wide image with a Wide image resolution, the Wide camera comprising a Wide image sensor and a Wide lens with a Wide field of view, FOV w , the Wide image sensor and the Wide lens having an optical axis (Y) to an object or scene; b) a folded Tele camera configured to provide a Tele image with a Tele image resolution higher than the Wide image resolution, the Tele camera comprising a rotating optical path folding element, OPFE , a Tele image sensor and a Tele lens with a Tele field of view, FOV T , wherein the OPFE, is operative to provide a folded optical path between an object or scene and the Tele image sensor; and c) a user interface for operating the digital camera , the user interface comprising a screen at a front side of the host device opposite to the backside and configured to display an image of the object or scene acquired with the Tele image sensor and the Wide image sensor and to display FOV T within FOV W , wherein rotation of the OPFE provides movement of FOV T within FOV W for acquiring Tele images in other portions of FOV W , wherein the Wide and Tele image sensors are in orthogonal planes and with heights Hw and H T orthogonal to each other and widths Ww and W T parallel to each other, and wherein a height to width ratio Hw/Ww or H T /W T is 9/16 or 3/4. a) a Wide camera configured to provide a Wide image with a Wide image resolution, the Wide camera comprising a Wide image sensor and a Wide lens with a Wide field of view, FOV w , the Wide image sensor and the Wide lens having an optical axis (Y) to an object or scene; b) a folded Tele camera configured to provide a Tele image with a Tele image resolution higher than the Wide image resolution, the Tele camera comprising a rotating optical path folding element, OPFE , a Tele image sensor and a Tele lens with a Tele field of view, FOV T , wherein the OPFE, is operative to provide a folded optical path between an object or scene and the Tele image sensor; and c) a user interface for operating the digital camera , the user interface comprising a screen at a front side of the host device opposite to the backside and configured to display an image of the object or scene acquired with the Tele image sensor and the Wide image sensor and to display FOV T within FOV W , wherein rotation of the OPFE provides movement of FOV T within FOV W for acquiring Tele images in other portions of FOV W , wherein the Wide and Tele image sensors are in orthogonal planes and with heights Hw and H T orthogonal to each other and widths Ww and W T parallel to each other, and wherein a height to width ratio Hw/Ww or H T /W T is 9/16 or 3/4. wherein the Wide and Tele image sensors are in orthogonal planes and with heights Hw and H T orthogonal to each other and widths Ww and W T parallel to each other, and wherein a height to width ratio Hw/Ww or H T /W T is 9/16 or 3/4.
A replaceable battery unit for a surgical power tool , the replaceable battery unit comprising a housing containing: one or more battery cells ; a motion sensor unit ; and a controller operable to: determine , from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool. one or more battery cells ; a motion sensor unit ; and a controller operable to: determine , from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool. determine , from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool.
A seatback for an aircraft seat , comprising a seatback structure (2.1) which has: - a rear side (2.2) having a partially circumferential outer edge (2.3) and a recess (2.4) which is partially surrounded by the outer edge, and - a panel (3.1) at least partially arranged within the recess and at least partially covered by the outer edge, wherein the panel is detachably retained to and/or in the recess and is configured as an interchangeable and customized part, wherein the outer edge is arranged on a circumference of the seatback structure and projecting substantially perpendicular away from a rear side surface (2.2.1) of the seatback structure, wherein the panel (3.1) comprises a main panel body (3.6), and wherein the main panel body (3.6) comprises a printed cover, and wherein the panel comprises a circumferential outer area (3.7) bent in a direction away from the main panel body (3.6), the circumferential outer area (3.7) at least partially corresponding to the outer edge (2.3) of the seatback structure (2.1). - a rear side (2.2) having a partially circumferential outer edge (2.3) and a recess (2.4) which is partially surrounded by the outer edge, and - a panel (3.1) at least partially arranged within the recess and at least partially covered by the outer edge, wherein the panel is detachably retained to and/or in the recess and is configured as an interchangeable and customized part, wherein the outer edge is arranged on a circumference of the seatback structure and projecting substantially perpendicular away from a rear side surface (2.2.1) of the seatback structure, wherein the panel (3.1) comprises a main panel body (3.6), and wherein the main panel body (3.6) comprises a printed cover, and wherein the panel comprises a circumferential outer area (3.7) bent in a direction away from the main panel body (3.6), the circumferential outer area (3.7) at least partially corresponding to the outer edge (2.3) of the seatback structure (2.1). wherein the panel is detachably retained to and/or in the recess and is configured as an interchangeable and customized part, wherein the outer edge is arranged on a circumference of the seatback structure and projecting substantially perpendicular away from a rear side surface (2.2.1) of the seatback structure, wherein the panel (3.1) comprises a main panel body (3.6), and wherein the main panel body (3.6) comprises a printed cover, and wherein the panel comprises a circumferential outer area (3.7) bent in a direction away from the main panel body (3.6), the circumferential outer area (3.7) at least partially corresponding to the outer edge (2.3) of the seatback structure (2.1).