mhurhangee/ep-ind-claims huggingface dataset:
A snowboard comprising a board with a central sliding surface, a lateral sliding surface, a front tip and a rear tip, and a steel edge along the outer edge of the board, the board is arranged for mounting two bindings on the board's surface at a distance apart approximately corresponding to approximately 1/3 of the board's length, where the board is provided with inwardly curved edge portions, the board having greater width at both ends at the transition (E, V) to the tips than at the middle, and that between the transition and transition to the front tip and the rear tip, the snowboard is provided with an additional sliding surface where the steel edge in the lateral sliding surfaces are located higher above the central sliding surface at transition and at transition to the rear tip, characterized in that the front tip comprises; - a skate plate, where the skate plate starts at a transition (D, W), in front of the central sliding surface, and where the skate plate relative to the central sliding surface has an approximately straight form so that the skate plate's angle to the central sliding surface is essentially constantly rising over the skate plate, - a short area where the front tip is curved upwards starting at the end of the central sliding surface at the transition (E, V) and extending to the beginning of the skate plate at the transition (D, W), - a front tip area in front of the skate plate at a transition where the front tip is curved further upwards, with the result that the front tip area creates an increasing angle with the central sliding surface again, viewed in the snowboard's longitudinal direction. - a skate plate, where the skate plate starts at a transition (D, W), in front of the central sliding surface, and where the skate plate relative to the central sliding surface has an approximately straight form so that the skate plate's angle to the central sliding surface is essentially constantly rising over the skate plate, - a short area where the front tip is curved upwards starting at the end of the central sliding surface at the transition (E, V) and extending to the beginning of the skate plate at the transition (D, W), - a front tip area in front of the skate plate at a transition where the front tip is curved further upwards, with the result that the front tip area creates an increasing angle with the central sliding surface again, viewed in the snowboard's longitudinal direction.
An animal feed product for pets, in particular dogs or cats, comprising an animal feed from the wet food category and a watertight, autoclavable tubular bag package (1, 1'), the animal feed including a sausage material made of animal and/or vegetable raw materials and at least one gelling agent and/or thickening agent, and optionally further additives, characterized in that the animal feed has - a water content of at least 75 wt-% and at most 90 wt-%; - a protein content of 5 - 12 wt-%, - a fat content of 2 - 7 wt-%, - a gelling agent and/or thickening agent content of 0.2 - 4 wt-%, and - optionally an additive content of 0.1 - 5 wt-%, and that the animal feed product is not flowable at room temperature in the ready-to-use state, but, rather, is designed as an elongated strand in the form of a rod or stalk having a semisolid, cut- and penetration-resistant consistency, and is packaged in a tubular bag that is adapted to the form of the animal feed. - a water content of at least 75 wt-% and at most 90 wt-%; - a protein content of 5 - 12 wt-%, - a fat content of 2 - 7 wt-%, - a gelling agent and/or thickening agent content of 0.2 - 4 wt-%, and - optionally an additive content of 0.1 - 5 wt-%,
A bi-component explosive artillery shell comprising a casing enclosing at least two materials (3, 4) which are non-explosive but, after mixing, form an explosive composition, said shell comprising at least one container integral with the casing and arranged coaxially thereto, said container delimiting an inner cavity enclosing a first liquid or gelled material, wherein the wall of said container carries a plurality of holes which are closed by a closing means, the one or more containers delimiting, with the casing, an annular space which encloses a second solid and porous material, wherein the closing means can open upon firing to allow the diffusion of the first material, by centrifugal effect, into the second material through the porosity of the latter, said shell being characterised in that it comprises at least one stack of containers axially aligned and connected to each other, each container being separated from the adjacent containers by at least one transverse wall, or in that it comprises a single cylindrical container axially extending on the entire height of the second material, this container being divided into compartments and comprising transverse separation walls dividing its inner volume into several chambers.
Latch, especially for a motor vehicle with a latch mechanism, whereby the latch comprises two different operating states, i.e. normal operation, in which the latch can be electrically opened, and breakdown operation, in which the latch can be mechanically opened, characterized in that the latch comprises a mechanical energy storage device (1, 5), with which the latch can be shifted from normal operation to breakdown operation, characterized in that a movable pin is present which is capable of releasing the energy stored in the mechanical energy storage device (1, 5) by means of movement.
A computer-implemented method for use in managing digital identities in multiple regions, through multiple identity providers, while providing for policy enforcement in connection with the digital identities, the method comprising: receiving, at an identity and access management hub (IAMH) computing device in a first region, a request related to a digital identity from a secondary hub disposed in a second region, wherein the first region is a first country and the second region is a second, different country; checking, by the IAMH computing device, a policy associated with the digital identity wherein the policy includes a limitation associated with transmission of personal identifying information associated with the request, from the first country to the second, different country; providing a decline to the user, at the relying party application and/or website, when the request relates to data associated with the digital identity in violation of the policy; soliciting, by the IAMH computing device, at least one claim from a user, at a relying party application and/or website, based on the request; providing the at least one claim to a value-added service associated with the IAMH for verification of the at least one claim; transmitting, by the IAMH computing device, a result of the verification to a relying party associated with the request; and providing, by the IAMH computing device, a token, in response to the request, to a secure resource associated with the relying party. receiving, at an identity and access management hub (IAMH) computing device in a first region, a request related to a digital identity from a secondary hub disposed in a second region, wherein the first region is a first country and the second region is a second, different country; checking, by the IAMH computing device, a policy associated with the digital identity wherein the policy includes a limitation associated with transmission of personal identifying information associated with the request, from the first country to the second, different country; providing a decline to the user, at the relying party application and/or website, when the request relates to data associated with the digital identity in violation of the policy; soliciting, by the IAMH computing device, at least one claim from a user, at a relying party application and/or website, based on the request; providing the at least one claim to a value-added service associated with the IAMH for verification of the at least one claim; transmitting, by the IAMH computing device, a result of the verification to a relying party associated with the request; and providing, by the IAMH computing device, a token, in response to the request, to a secure resource associated with the relying party.
A method for securing touch input, comprising: rendering, in a secure operating environment a user input screen for accepting a touch input via a touch panel; rendering, in a non-secure operating environment, an execution screen of a user interface program requiring the touch input; and outputting a secured input screen by displaying the user input screen as an overlay above the execution screen, wherein a non-secure application program running in the non-secure application environment is prevented from accessing secure data stored in the secure application environment, and wherein a security attribute of the touch panel is set to secure, and access to the touch panel and the touch input is limited to the secure operating environment when the security attribute of the touch panel is set to secure. rendering, in a secure operating environment a user input screen for accepting a touch input via a touch panel; rendering, in a non-secure operating environment, an execution screen of a user interface program requiring the touch input; and outputting a secured input screen by displaying the user input screen as an overlay above the execution screen, wherein a non-secure application program running in the non-secure application environment is prevented from accessing secure data stored in the secure application environment, and wherein a security attribute of the touch panel is set to secure, and access to the touch panel and the touch input is limited to the secure operating environment when the security attribute of the touch panel is set to secure.
A polypeptide having class EC 1.1 and EC 1.2 oxidoreductase activity which polypeptide comprises an amino acid sequence having at least 70% sequence identity with SEQ ID NO: 3.
Cutting device for peeling and removing the core of a pineapple fruit, comprising a head element, a ringshaped or annular-shaped cutting element having a single-component or multi-component cutting ring, at least one connecting structure connecting the head element and the cutting element, and wherein the head element comprises at least one fastening element, by means of which the head element can be fastened to a drive unit, wherein furthermore a central, detachable cutting cylinder is arranged on the head element, which is concentrically enclosed by the connecting structure and the cutting element, the head element and the cutting element each comprise at least one receiving and connecting element (6.1), to or by means of which the connecting structure is detachably fastened, and wherein the corresponding, complementary counter-receiving element (6.2) to the receiving and connecting element (6.1) is arranged or formed on the connecting structure, characterized in that the cutting element comprises a terminating edge or ring, in which the receiving and connecting element (6.1) is arranged.
An analysis laboratory comprising at least a first and a second laboratory automation system, placed at different heights, the first laboratory automation system being at a lower level and the second laboratory automation system being at a higher level, and an apparatus for the transfer of conveying devices for single test tubes containing biological material, at least between said first and said second laboratory automation system, said conveying devices being adapted to keep said test tube in a vertical position during handling, said apparatus comprising a motor-driven belt, arranged vertically with respect to said first and second laboratory automation systems, shelves fixed to said motor-driven belt for accommodating said conveying devices, said shelves remaining horizontal during said transfer so that the test tubes remain in vertical position, said belt allowing, by means of its rotation, the conveying devices to be lifted from said first laboratory automation system to said second laboratory automation system, and the conveying devices to be simultaneously descended from said second laboratory automation system to said first laboratory automation system, thus defining two distinct branches of said apparatus, an ascent branch and a descent branch, said analysis laboratory is characterized in that each of said branches is directly interfaced with said first and second laboratory automation system, a first loading point of the conveying devices on said apparatus and a first unloading point of the conveying devices from said apparatus of said first laboratory automation system are defined respectively at the interface with said ascent branch and with said descent branch, a second loading point of the conveying devices on said apparatus and a second unloading point of the conveying devices from said apparatus of said second laboratory automation system are defined respectively at the interface with said descent branch and with said ascent branch, pushers of said apparatus are present at each loading and unloading point adapted to horizontally move the conveying devices so as to keep the test tubes in vertical position during the transfer from each of said first and second laboratory automation system to one of said shelves and vice versa, thereby parallelizing the operations of said apparatus along its two distinct branches and carrying out, along said branches of said apparatus, the transfer of specimens from the first automation system to the second automation system and vice versa.
A method of fabricating a composite part having reinforcing fibers embedded in a matrix, the method comprising: fabricating a masterless layup mandrel tool at a fabrication site having a clean section and an adjacent dirty section, the tool including a composite face sheet that provides a mold line surface, wherein fabricating the tool includes creating a cellular structure, filling cells of the cellular structure with a foam-like material, and machining the foam-like material to obtain a machined surface in the dirty section, and laying up composite material on the machined surface to form the face sheet in the clean section; and using the masterless tool at that site to form a layup of the reinforcing fibers in the clean section. fabricating a masterless layup mandrel tool at a fabrication site having a clean section and an adjacent dirty section, the tool including a composite face sheet that provides a mold line surface, wherein fabricating the tool includes creating a cellular structure, filling cells of the cellular structure with a foam-like material, and machining the foam-like material to obtain a machined surface in the dirty section, and laying up composite material on the machined surface to form the face sheet in the clean section; and using the masterless tool at that site to form a layup of the reinforcing fibers in the clean section.
A fluid system comprising: a fluid machine installed in a pipe system which has a height difference and through which a fluid flows; a rotating electrical machine connected to a rotation shaft of the fluid machine; a flow rate control valve installed in a run of a bypass circuit which is connected in parallel to the fluid machine; and a control device, which is configured to estimate a flow rate and an effective height difference in the fluid machine based on a a torque value, a rotation speed and a generated power of the rotating electrical machine; estimate a total flow rate in the pipe system based on a flow resistance characteristic line which indicates a relationship among the effective height difference, the total flow rate and the total height differences (Ho) in the pipe system, and on the flow rate and the effective height difference estimated, perform cooperative control of the fluid machine and the flow rate control valve such that an estimated value of a total flow rate becomes close to a target flow rate (QT*) of the total flow rate in the pipe system. a fluid machine installed in a pipe system which has a height difference and through which a fluid flows; a rotating electrical machine connected to a rotation shaft of the fluid machine; a flow rate control valve installed in a run of a bypass circuit which is connected in parallel to the fluid machine; and a control device, which is configured to estimate a flow rate and an effective height difference in the fluid machine based on a a torque value, a rotation speed and a generated power of the rotating electrical machine; estimate a total flow rate in the pipe system based on a flow resistance characteristic line which indicates a relationship among the effective height difference, the total flow rate and the total height differences (Ho) in the pipe system, and on the flow rate and the effective height difference estimated, perform cooperative control of the fluid machine and the flow rate control valve such that an estimated value of a total flow rate becomes close to a target flow rate (QT*) of the total flow rate in the pipe system.
A method of providing a video stream from a system comprising a main unit and a plurality of sensors, wherein the main unit is configured to receive data from the plurality of sensors, the method comprising the steps of: transmitting a multi-view video stream from the main unit to a client, wherein the multi-view video stream represents a multi-view composed of sensor data views from the plurality of sensors in the system; receiving, in the main unit, a command from the client representing a zoom-in operation; computing an updated multi-view according to the received command; evaluating if the updated multi-view includes an area outside a dominating sensor data view in the updated multi-view that is greater than a predetermined threshold, wherein the dominating sensor data view is the sensor data view that occupies the largest area of the updated multi-view; if the area outside the dominating sensor data view is greater than the predetermined threshold, transmitting a multi-view video stream representing the updated multi-view; if the area outside the dominating sensor data view is less than, or equal to, the predetermined threshold, transmitting a single-view video stream representing the dominating sensor data view. transmitting a multi-view video stream from the main unit to a client, wherein the multi-view video stream represents a multi-view composed of sensor data views from the plurality of sensors in the system; receiving, in the main unit, a command from the client representing a zoom-in operation; computing an updated multi-view according to the received command; evaluating if the updated multi-view includes an area outside a dominating sensor data view in the updated multi-view that is greater than a predetermined threshold, wherein the dominating sensor data view is the sensor data view that occupies the largest area of the updated multi-view; receiving, in the main unit, a command from the client representing a zoom-in operation; computing an updated multi-view according to the received command; evaluating if the updated multi-view includes an area outside a dominating sensor data view in the updated multi-view that is greater than a predetermined threshold, wherein the dominating sensor data view is the sensor data view that occupies the largest area of the updated multi-view; if the area outside the dominating sensor data view is greater than the predetermined threshold, transmitting a multi-view video stream representing the updated multi-view; if the area outside the dominating sensor data view is less than, or equal to, the predetermined threshold, transmitting a single-view video stream representing the dominating sensor data view.
A computer-implemented method for making a three-dimensional surface reconstruction of an object from two or more bi-dimensional angiographic images of the object, so called 2D images, the method comprising the following steps: a) providing a three-dimensional dataset of the object acquired from a 3D imaging modality; b) generating a 3D model using the dataset provided in step a); c) providing motion information to build a 3D model over time; d) generating a 3D reconstruction from said at least two 2D images; e) using the 3D reconstruction generated in step d) and the information from the 3D model over time to obtain a correct 3D reconstruction over time. a) providing a three-dimensional dataset of the object acquired from a 3D imaging modality; b) generating a 3D model using the dataset provided in step a); c) providing motion information to build a 3D model over time; d) generating a 3D reconstruction from said at least two 2D images; e) using the 3D reconstruction generated in step d) and the information from the 3D model over time to obtain a correct 3D reconstruction over time.
A bias network for an amplifier, the bias network comprising: a bias circuit having an output and being configured to generate a bias signal; and a coupling circuit (450, 650) coupled between the output of the bias circuit and an input of the amplifier to enable provision of a modified bias signal to the input of the amplifier, wherein the coupling circuit includes an N-type metal-oxide semiconductor, NMOS, transistor and a resistor, the resistor is coupled between a source terminal and a drain terminal of the NMOS transistor, a first source or drain, S/D, terminal of a pair of the source terminal and the drain terminal of the NMOS transistor is coupled to the input of the amplifier and a second S/D terminal of the pair is coupled to the output of the bias circuit, and the coupling circuit is configured so that an impedance of the coupling circuit is dependent on a power level of an input signal to be amplified by the amplifier such that during operation, a current between the first S/D terminal and the second S/D terminal of the NMOS transistor is dependent on a power level of an input signal to be amplified by the amplifier, wherein the impedance of the coupling circuit gradually decreases as the power of the input signal increases for a range of values of the power level of the input signal, wherein the coupling circuit further includes a power detector configured to determine a power of the input signal to be amplified by the amplifier, and wherein an output of the power detector is coupled to a gate terminal of the NMOS transistor. a bias circuit having an output and being configured to generate a bias signal; and a coupling circuit (450, 650) coupled between the output of the bias circuit and an input of the amplifier to enable provision of a modified bias signal to the input of the amplifier, wherein the coupling circuit includes an N-type metal-oxide semiconductor, NMOS, transistor and a resistor, the resistor is coupled between a source terminal and a drain terminal of the NMOS transistor, a first source or drain, S/D, terminal of a pair of the source terminal and the drain terminal of the NMOS transistor is coupled to the input of the amplifier and a second S/D terminal of the pair is coupled to the output of the bias circuit, and the coupling circuit is configured so that an impedance of the coupling circuit is dependent on a power level of an input signal to be amplified by the amplifier such that during operation, a current between the first S/D terminal and the second S/D terminal of the NMOS transistor is dependent on a power level of an input signal to be amplified by the amplifier, wherein the impedance of the coupling circuit gradually decreases as the power of the input signal increases for a range of values of the power level of the input signal, wherein the coupling circuit further includes a power detector configured to determine a power of the input signal to be amplified by the amplifier, and wherein an output of the power detector is coupled to a gate terminal of the NMOS transistor.