mhurhangee/ep-ind-claims huggingface dataset:
A window for a building structure, comprising a window frame, a sash and a pane including at least one sheet of glass or other glazing material, said sash being moveable relative to the frame by means of a hinge connection including a set of frame hinge parts and a set of sash hinge parts, said sash carrying the pane, said sash including at least a first element surrounding the pane and formed as a moulded border element, moulded directly on the pane, which at least partially encases an edge of at least one sheet of said pane, said first element fulfilling the function of a structural element bearing the loads affecting the window, said first element having at least one functional face, and the set of sash hinge parts of the hinge connection being connected to said first element at a functional face thereof, and said first element having an internal side, which in the installed position of the window points inwards into the building, an external side opposite the internal side, an outer side facing away from the light-admitting aperture covered by the pane and an inner side opposite the outer side, wherein the pane comprises at least two sheets, the first element encasing the edges of both sheets of the pane substantially in full, wherein the first element is moulded to the edge of the pane and the sash hinge parts are integrally connected with the first element of the sash by the moulding of the first element to the pane, characterized in that the sash comprises at least one further element (5,6,7,8), said at least one further element being connected to the first element at the functional face, and said at least one further element including a second element with thermal insulating properties attached to or detachably connected to the inner side and/or internal side of the first element, and wherein draining means are provided within the first element of the sash.
A method performed by an evolved Node B, eNB, of a Long Term Evolution system for enabling the use of a downlink carrier of an un-licensed frequency band, said method comprises: - determining a measurement configuration for at least one user equipment, UE, served by the eNB; - sending on a licensed frequency band the measurement configuration to said at least one UE; - receiving on the licensed frequency band a measurement report from the at least one UE; - deciding to use a downlink carrier of an un-licensed frequency band based on the received measurement report; and - using adapted fractional loading of the downlink carrier of the unlicensed frequency band based on the received measurement report, wherein the active subframe ratio of the downlink carrier for each UE is configured in dependence of measured interference from surrounding radio systems. - determining a measurement configuration for at least one user equipment, UE, served by the eNB; - sending on a licensed frequency band the measurement configuration to said at least one UE; - receiving on the licensed frequency band a measurement report from the at least one UE; - deciding to use a downlink carrier of an un-licensed frequency band based on the received measurement report; and - using adapted fractional loading of the downlink carrier of the unlicensed frequency band based on the received measurement report, wherein the active subframe ratio of the downlink carrier for each UE is configured in dependence of measured interference from surrounding radio systems.
A biological fluid collection device, comprising: a housing having a superior surface and an inferior surface, wherein a portion of the superior surface defines a cavity having a cavity superior surface; a film engageable with the housing, the film having a film inferior surface and a film superior surface, the film transitionable between an initial position in which the film inferior surface is in contact with the cavity superior surface and a fill position in which the film inferior surface is spaced from the cavity superior surface forming a chamber between the film and the housing; and an actuator disposed at least partially within the housing and in communication with the film and the housing, the actuator transitionable between an original position and a depressed position, wherein after actuation of the actuator to the depressed position, as the actuator returns to the original position, the actuator applies a vacuum to the film superior surface. a housing having a superior surface and an inferior surface, wherein a portion of the superior surface defines a cavity having a cavity superior surface; a film engageable with the housing, the film having a film inferior surface and a film superior surface, the film transitionable between an initial position in which the film inferior surface is in contact with the cavity superior surface and a fill position in which the film inferior surface is spaced from the cavity superior surface forming a chamber between the film and the housing; and an actuator disposed at least partially within the housing and in communication with the film and the housing, the actuator transitionable between an original position and a depressed position, wherein after actuation of the actuator to the depressed position, as the actuator returns to the original position, the actuator applies a vacuum to the film superior surface.
A garlic press, comprising: a ratchet body having an outer housing defining an interior space sized and configured to receive a clove of garlic; a grid of blades spanning the interior space; a pusher positioned within the housing for axial movement toward the grid of blades, the pusher being coupled to a ratchet rack; a main body pivotally attached to the ratchet body for pivotal movement of the main body with respect to the ratchet body; and a pawl attached to the main body, the pawl positioned on the main body to engage the ratchet rack when the ratchet body is pivotally moved toward the main body; whereby pivotal movement of the main body with respect to the ratchet body causes the pawl to engage the ratchet rack and thereby move the pusher axially toward the grid of blades, pushing the clove of garlic through the grid of blades, characterizing by the garlic press further comprising a slicing blade carried on the main body, the slicing blade being positioned to pass across the grid of blades as the ratchet body is pivoted toward the main body. a ratchet body having an outer housing defining an interior space sized and configured to receive a clove of garlic; a grid of blades spanning the interior space; a pusher positioned within the housing for axial movement toward the grid of blades, the pusher being coupled to a ratchet rack; a main body pivotally attached to the ratchet body for pivotal movement of the main body with respect to the ratchet body; and a pawl attached to the main body, the pawl positioned on the main body to engage the ratchet rack when the ratchet body is pivotally moved toward the main body; whereby pivotal movement of the main body with respect to the ratchet body causes the pawl to engage the ratchet rack and thereby move the pusher axially toward the grid of blades, pushing the clove of garlic through the grid of blades, characterizing by the garlic press further comprising a slicing blade carried on the main body, the slicing blade being positioned to pass across the grid of blades as the ratchet body is pivoted toward the main body.
A method for analyzing optical coherence tomography 3D imaging volume data for retinal layers identification comprising: training a machine learning system with at least two sets of training images (300, 304), a first set of the training images being obtained from a first type of physiological tissue and a second set of the training images being obtained from a second type of physiological tissue, the machine learning system being trained to recognize differences in the training images between the first and second types of physiological tissues; supplying (210, 220) the trained machine learning system with optical coherence tomography 3D imaging volume data of a retina of a subject; with the trained machine learning system, identifying probabilities that pixels in the 3D imaging volume data belong to the first type of physiological tissue and/or the second type of physiological tissue, each probability corresponding to a pixel of the 3D imaging volume data; and based on the identified probabilities, identifying a boundary in the 3D imaging volume data between the first and second types of physiological tissues, or determining a property of the first or second type of physiological tissue; wherein the first type of physiological tissue and the second type of physiological tissue are different layers of a retina; wherein the training images of the first and second sets of training images are en face images (300, 304; 402-420; 502 - 512) or sub-volumes of optical coherence tomography 3D imaging volume data separated by a predetermined depth. training a machine learning system with at least two sets of training images (300, 304), a first set of the training images being obtained from a first type of physiological tissue and a second set of the training images being obtained from a second type of physiological tissue, the machine learning system being trained to recognize differences in the training images between the first and second types of physiological tissues; supplying (210, 220) the trained machine learning system with optical coherence tomography 3D imaging volume data of a retina of a subject; with the trained machine learning system, identifying probabilities that pixels in the 3D imaging volume data belong to the first type of physiological tissue and/or the second type of physiological tissue, each probability corresponding to a pixel of the 3D imaging volume data; and based on the identified probabilities, identifying a boundary in the 3D imaging volume data between the first and second types of physiological tissues, or determining a property of the first or second type of physiological tissue; wherein the first type of physiological tissue and the second type of physiological tissue are different layers of a retina; wherein the training images of the first and second sets of training images are en face images (300, 304; 402-420; 502 - 512) or sub-volumes of optical coherence tomography 3D imaging volume data separated by a predetermined depth.
A concrete screed apparatus having a frame and a screed head secured thereto for screeding a concrete surface comprising: an electrically actuated leveling system secured to said frame and secured to a plurality of spaced drive wheels, each of said drive wheels rotatably and pivotably secured to said leveling system, characterized in that said leveling system comprises: a plurality of vertically adjustable leveling legs directly connected at a first end to said spaced drive wheels and directly connected at a second end to said frame, each leveling leg having an electrical actuator secured thereto for adjusting an elevation of said frame. an electrically actuated leveling system secured to said frame and secured to a plurality of spaced drive wheels, each of said drive wheels rotatably and pivotably secured to said leveling system, characterized in that said leveling system comprises: a plurality of vertically adjustable leveling legs directly connected at a first end to said spaced drive wheels and directly connected at a second end to said frame, each leveling leg having an electrical actuator secured thereto for adjusting an elevation of said frame.
A method for preparing a cermet comprising an oxide ceramic comprising one or more chemical element(s), and comprising at least one metal element at its degree of oxidation of 0, said method successively comprising: a) a step of impregnating an ion-exchange resin by an aqueous solution comprising said chemical element(s) and said at least one metal element in an ionic form, whereby said chemical element(s) and said at least one metal element are exchanged at the resin; b) a step of heat treating said resin in an oxidizing atmosphere to form one or more oxides of said chemical element(s) and at least one oxide of said at least one metal element; c) a step of selectively reducing the oxide(s) of said at least one metal element into said at least one metal element at its degree of oxidation of 0. a) a step of impregnating an ion-exchange resin by an aqueous solution comprising said chemical element(s) and said at least one metal element in an ionic form, whereby said chemical element(s) and said at least one metal element are exchanged at the resin; b) a step of heat treating said resin in an oxidizing atmosphere to form one or more oxides of said chemical element(s) and at least one oxide of said at least one metal element; c) a step of selectively reducing the oxide(s) of said at least one metal element into said at least one metal element at its degree of oxidation of 0.
A multi-grade engine oil formulation, said formulation comprising: a) a base oil component, said base oil component accounting for from at least 40 wt. % to at most 80 wt. % of said formulation; b) an additive component comprising a detergent inhibitor package and a viscosity index improver, said additive component collectively accounting for at most 35 wt % of said formulation; and c) a diester component, distinct from the additive component, comprising a quantity of at least one vicinal diester species, the vicinal diester species having the following structure: wherein R 1, R 2, R 3, and R 4 are the same or independently selected from C 2 to C 17 hydrocarbon groups, said at least one vicinal diester species accounting for at least 30 wt % of said diester component, and wherein said diester component accounts for from at least 5 wt % to at most 35 wt % of said formulation; wherein said formulation has a kinematic viscosity of from between at least 3 mm 2 /s and at most 15 mm 2 /s at 100°C, and a pour point of less than -15°C; and wherein the at least one vicinal diester species, of which the diester component is comprised, is selected from the group consisting of dodecanoic acid 2-dodecanoyloxy-1-hexyl-octyl ester and its isomers, and mixtures thereof. a) a base oil component, said base oil component accounting for from at least 40 wt. % to at most 80 wt. % of said formulation; b) an additive component comprising a detergent inhibitor package and a viscosity index improver, said additive component collectively accounting for at most 35 wt % of said formulation; and c) a diester component, distinct from the additive component, comprising a quantity of at least one vicinal diester species, the vicinal diester species having the following structure: wherein R 1, R 2, R 3, and R 4 are the same or independently selected from C 2 to C 17 hydrocarbon groups, said at least one vicinal diester species accounting for at least 30 wt % of said diester component, and wherein said diester component accounts for from at least 5 wt % to at most 35 wt % of said formulation;
Method for manufacturing an element of a plurality of casting mold elements (22, 70, 76) assemblable to a 3-dimensional object casting mold, comprising: superimposing a plurality of mold layers (51, 68 72), wherein each mold layer is made as follows: a) depositing casting pattern material inside at least one casting pattern material filling area determined by a digital model of the casting pattern, b) depositing temporary filling jacket material for making a boundary (56, 58) for at least one mold material filling area around the at least one casting pattern material filling area, c) filling the at least one mold material filling area with a casting mold material (59 or 61), d) removing the temporary filling jackets, e) filling the voids left by the removed jackets with the casting mold material (59 or 61) and f) finishing the upper surface of the layer (51 or 68 or 72); and removing the casting pattern material. superimposing a plurality of mold layers (51, 68 72), wherein each mold layer is made as follows: a) depositing casting pattern material inside at least one casting pattern material filling area determined by a digital model of the casting pattern, b) depositing temporary filling jacket material for making a boundary (56, 58) for at least one mold material filling area around the at least one casting pattern material filling area, c) filling the at least one mold material filling area with a casting mold material (59 or 61), d) removing the temporary filling jackets, e) filling the voids left by the removed jackets with the casting mold material (59 or 61) and f) finishing the upper surface of the layer (51 or 68 or 72); a) depositing casting pattern material inside at least one casting pattern material filling area determined by a digital model of the casting pattern, b) depositing temporary filling jacket material for making a boundary (56, 58) for at least one mold material filling area around the at least one casting pattern material filling area, c) filling the at least one mold material filling area with a casting mold material (59 or 61), d) removing the temporary filling jackets, e) filling the voids left by the removed jackets with the casting mold material (59 or 61) and f) finishing the upper surface of the layer (51 or 68 or 72); and removing the casting pattern material.
An apparatus for controlling paralleled inverter configured to control at least two paralleled inverters (20 and 30), the apparatus comprising: a controller configured to respectively transmit operation information to at least two inverters (20 and 30), by one synchronization signal; a detection unit configured to respectively detect output currents of at least two inverters (20 and 30); and at least two interface units (16 and 17) configured to respectively transmit the operation information of the controller to the at least two inverters (20 and 30): characterized in that: the controller is configured to correct the operation information by performing a proportional integral, PI control with an error of output currents of the at least two inverters (20 and 30). a controller configured to respectively transmit operation information to at least two inverters (20 and 30), by one synchronization signal; a detection unit configured to respectively detect output currents of at least two inverters (20 and 30); and at least two interface units (16 and 17) configured to respectively transmit the operation information of the controller to the at least two inverters (20 and 30): characterized in that: the controller is configured to correct the operation information by performing a proportional integral, PI control with an error of output currents of the at least two inverters (20 and 30).
A method (200, 300, 400, 500, 600) for encoding data, the method comprising: - determining a set of digits, X, representative of a value to be encoded; wherein the method further comprises: - determining a set of factor values, S, to be used in generating an encoded value; - for a given digit, x, of the set of digits, X, determining at least one factor value, s, of the set of factor values, S, corresponding to the given digit, x; and - including the at least one factor value, s, in an encoded value; wherein determining a set of digits, X, representative of a value to be encoded comprises, for a value x ∈ Z / 2 n Z and radix, r, determining a set of digits, x i ∈ X as x = ∑ i = 0 R − 1 x i r i where R = ⌈ n log 2 r ⌉ and x i is less than r and greater than or equal to zero; and wherein determining at least one factor value, s, of the set of factor values, S, corresponding to the given digit, x, and including the at least one factor value, s, in an encoded value together comprise calculating an encoded value as where s i is ∏ i = 0 R − 1 s i x i the factor value at position i within the set of factor values S. - determining a set of digits, X, representative of a value to be encoded; wherein the method further comprises: - determining a set of factor values, S, to be used in generating an encoded value; - for a given digit, x, of the set of digits, X, determining at least one factor value, s, of the set of factor values, S, corresponding to the given digit, x; and - including the at least one factor value, s, in an encoded value; wherein determining a set of digits, X, representative of a value to be encoded comprises, for a value x ∈ Z / 2 n Z and radix, r, determining a set of digits, x i ∈ X as x = ∑ i = 0 R − 1 x i r i where R = ⌈ n log 2 r ⌉ and x i is less than r and greater than or equal to zero; and wherein determining at least one factor value, s, of the set of factor values, S, corresponding to the given digit, x, and including the at least one factor value, s, in an encoded value together comprise calculating an encoded value as where s i is ∏ i = 0 R − 1 s i x i the factor value at position i within the set of factor values S. - determining a set of factor values, S, to be used in generating an encoded value; - for a given digit, x, of the set of digits, X, determining at least one factor value, s, of the set of factor values, S, corresponding to the given digit, x; and - including the at least one factor value, s, in an encoded value;
A sliding and rotating apparatus for joining a first component and a second component comprising: a base member; a sliding member coupled to the base member so as to permit sliding thereon in a first linear direction and between a first position corresponding to a compact arrangement and a second position corresponding to a deployed arrangement; a rotating member rotationally coupled to the sliding member; wherein the rotating member and base member are configured such that as the sliding member is forced into the second position the rotating member is rotated in a first angular direction; and a spring mechanism that forces the apparatus in the first position when the apparatus is in the first position, and that forces the apparatus in the second position when the apparatus is in the second position; wherein the spring mechanism comprises a first torsion spring having a first end coupled to the sliding member and a second end coupled to the base member. a base member; a sliding member coupled to the base member so as to permit sliding thereon in a first linear direction and between a first position corresponding to a compact arrangement and a second position corresponding to a deployed arrangement; a rotating member rotationally coupled to the sliding member; wherein the rotating member and base member are configured such that as the sliding member is forced into the second position the rotating member is rotated in a first angular direction; and a spring mechanism that forces the apparatus in the first position when the apparatus is in the first position, and that forces the apparatus in the second position when the apparatus is in the second position; wherein the spring mechanism comprises a first torsion spring having a first end coupled to the sliding member and a second end coupled to the base member.