mhurhangee/ep-ind-claims huggingface dataset:
A storage device comprising: a nonvolatile memory device including a first area, a second area, and a third area; and a controller configured to receive a write command and first data from an external host device, to preferentially write the first data in the first area or the second area rather than the third area when the first data are associated with a turbo write to accelerate write speed, and to write the first data in the first area, the second area, or the third area depending on an internally assigned normal write policy when the first data are associated with a normal write, wherein the controller is further configured to receive a move command from the external host device and to move second data stored in the third area to the first area or the second area to accelerate read speed of the second data, wherein the first area and the second area are used as single-level cell space, wherein the third area is used as triple-level cell space, and wherein the move command includes force level information indicating a scheme to move the second data when a free capacity of a destination area, to which the second data are to be moved, from among the first area and the second area, is smaller than a capacity of the second data, wherein said scheme defines a policy determining the quantity or ratio of data to be evicted from the destination area, the quantity or ratio of second data to be moved, and the quantity or ratio of second data to be left. a nonvolatile memory device including a first area, a second area, and a third area; and a controller configured to receive a write command and first data from an external host device, to preferentially write the first data in the first area or the second area rather than the third area when the first data are associated with a turbo write to accelerate write speed, and to write the first data in the first area, the second area, or the third area depending on an internally assigned normal write policy when the first data are associated with a normal write, wherein the controller is further configured to receive a move command from the external host device and to move second data stored in the third area to the first area or the second area to accelerate read speed of the second data, wherein the first area and the second area are used as single-level cell space, wherein the third area is used as triple-level cell space, and wherein the move command includes force level information indicating a scheme to move the second data when a free capacity of a destination area, to which the second data are to be moved, from among the first area and the second area, is smaller than a capacity of the second data, wherein said scheme defines a policy determining the quantity or ratio of data to be evicted from the destination area, the quantity or ratio of second data to be moved, and the quantity or ratio of second data to be left.
An in-line check valve for use in microfluidic devices such as small, implantable drug-delivery devices, comprising: a first rigid tube defining a first lumen for flow of fluid therethrough; affixed to an interior surface of the first tube and spanning a cross-section thereof, an elastic diaphragm comprising a slit or opening therethrough; and a backward-leakage stopper (i) extending beyond and surrounding an inlet end of the first rigid tube, (ii) affixed to an exterior surface of the first tube, and (iii) abutting the diaphragm at a first side thereof; wherein the valve is configured to (i) open upon application of at least a cracking pressure on the first side of the diaphragm so as to permit fluid to pass through the slit or opening from the first side to a second side of the diaphragm, and (ii) prevent backflow of fluid from the second side to the first side until at least a breakdown pressure is reached on the second side. a first rigid tube defining a first lumen for flow of fluid therethrough; affixed to an interior surface of the first tube and spanning a cross-section thereof, an elastic diaphragm comprising a slit or opening therethrough; and a backward-leakage stopper (i) extending beyond and surrounding an inlet end of the first rigid tube, (ii) affixed to an exterior surface of the first tube, and (iii) abutting the diaphragm at a first side thereof; wherein the valve is configured to (i) open upon application of at least a cracking pressure on the first side of the diaphragm so as to permit fluid to pass through the slit or opening from the first side to a second side of the diaphragm, and (ii) prevent backflow of fluid from the second side to the first side until at least a breakdown pressure is reached on the second side.
A bracing device (100, 200) for lining a structure, comprising a rod (10, 110) extending along a longitudinal axis and, at a proximal end of said rod (10, 110), a first system for attaching it to the structure to be lined and, at a distal end of the rod (10, 110), a second system for attaching it to an element of the liner, the first system comprising means (20, 22, 120, 192) for adjustably attaching the device to a threaded axis, wherein the adjustable attachment means comprise a nut suitable for engaging with the threaded axis, the device comprising a free adjustment space suitable for receiving the threaded axis, downstream of the nut, characterized in that the rod (10, 110) comprises at least one radial opening for visualizing said free adjustment space.
Pressing device comprising, - a flat frame-shaped base frame (4, 10, 12), which forms a lateral, optionally slightly inclined opposite to the vertical arrangement level for an object to be pressed, and - on the base flame (4, 10) mounted and positioned ahove the arrangement level, like clamping jaws, short adjustable support shoes and elongated, arm-like clamping and support rails, on which the object to be pressed is placed and between which the object to be pressed is compressed, - one of the upper support shoes and the lower support rail acting as pressing means characterized in that the flat frame-shaped base frame (4, 10, 12) comprises a perforated plate which is intended for compression of small-sized and / or triangular or polygonal objects. - a flat frame-shaped base frame (4, 10, 12), which forms a lateral, optionally slightly inclined opposite to the vertical arrangement level for an object to be pressed, and - on the base flame (4, 10) mounted and positioned ahove the arrangement level, like clamping jaws, short adjustable support shoes and elongated, arm-like clamping and support rails, on which the object to be pressed is placed and between which the object to be pressed is compressed, - one of the upper support shoes and the lower support rail acting as pressing means characterized in that the flat frame-shaped base frame (4, 10, 12) comprises a perforated plate which is intended for compression of small-sized and / or triangular or polygonal objects.
Position sensor having two coils (1b, 3), wherein the first coil, transmission coil, is supplied in such a manner with a specific alternating-current voltage that it emits an electromagnetic field, wherein this field is received or detected by means of the second coil, receiving coil, wherein the position sensor further has a third coil which emits an electromagnetic field, and a fourth coil and a fifth coil, which independently of each other receive or detect the electromagnetic field of the third coil, wherein the axis of the third coil is located in the same direction as the axis of the first coil, wherein the first coil and the third coil are located beside each other and wherein the second coil is located beside the fourth coil and the fifth coil, characterised in that the fourth coil and the fifth coil have a common axis, in that the common axis is located orthogonally with respect to the axis of the second coil, and in that the common axis and the axis of the second coil are each located orthogonally with respect to the axes of the first coil and the third coil, wherein the respective coupling between the receiving coils and the associated transmission coils changes when the relative position of the receiving coils (3, 5, 6) changes, on the one hand, with respect to the position of the transmission coils (a, 1b), on the other hand.
Method for manufacturing an electronic device, comprising the following steps of: - providing a multilayer structure comprising a substrate of high-resistivity semiconductor material, an active layer and an electrically insulating layer disposed between the substrate and the active layer; - forming at least one back-gate MOS transistor in a first region of the multilayer structure; - etching the active layer and the electrically insulating layer in a second region of the multilayer structure, distinct from the first region; - forming (S4, S5) an electron confinement layer on the substrate in the second region of the multilayer structure; and - forming at least one passive component, such as an inductor, on the electron confinement layer; wherein said at least one back-gate MOS transistor is formed in the first region before the step of etching the active layer and the electrically insulating layer and wherein the electron confinement layer is formed in the second region after the step of etching the active layer and the electrically insulating layer. - providing a multilayer structure comprising a substrate of high-resistivity semiconductor material, an active layer and an electrically insulating layer disposed between the substrate and the active layer; - forming at least one back-gate MOS transistor in a first region of the multilayer structure; - etching the active layer and the electrically insulating layer in a second region of the multilayer structure, distinct from the first region; - forming (S4, S5) an electron confinement layer on the substrate in the second region of the multilayer structure; and - forming at least one passive component, such as an inductor, on the electron confinement layer;
A method of manufacturing a photovoltaic device comprising at least a pair of a first and a second serially interconnected photovoltaic device cell (10A,...,10D), which succeed each other in a succession direction, the method comprising the steps of: - providing a transparent electrode layer having respective transparent electrode layer regions (11A,...,11D), which are distinct from each other in said succession direction, - forming a respective set of one or more electrical conductors (121A,... 124A) on a surface of each transparent electrode region, the electrical conductors having a first main surface forming an electric contact with their respective transparent electrode region, and having a second main surface opposite said main surface, wherein the second main surface has an exposed end-portion (121A1) forming a further electric contact in a direction away from the succession direction, a remaining portion (121A2) of the second main surface being electrically insulated, - depositing respective photo-voltaic layer portions (14A,...,14D), each photovoltaic layer portion extending over the respective transparent electrode region (11A,...,11D) and over the insulated portion of the one or more conductors of the respective set, - depositing respective further electrode regions (15A,...,15D) for each photovoltaic device cell that extends over the respective photovoltaic layer region (14A,...,14D) wherein the further electrode region that extends over the first photovoltaic layer region also extends over the electric contacts formed by the exposed ends of the set of one or more electrical conductors (121B, 122B, 123B, 124B) that are formed on the second transparent electrode layer region. - providing a transparent electrode layer having respective transparent electrode layer regions (11A,...,11D), which are distinct from each other in said succession direction, - forming a respective set of one or more electrical conductors (121A,... 124A) on a surface of each transparent electrode region, the electrical conductors having a first main surface forming an electric contact with their respective transparent electrode region, and having a second main surface opposite said main surface, wherein the second main surface has an exposed end-portion (121A1) forming a further electric contact in a direction away from the succession direction, a remaining portion (121A2) of the second main surface being electrically insulated, - depositing respective photo-voltaic layer portions (14A,...,14D), each photovoltaic layer portion extending over the respective transparent electrode region (11A,...,11D) and over the insulated portion of the one or more conductors of the respective set, - depositing respective further electrode regions (15A,...,15D) for each photovoltaic device cell that extends over the respective photovoltaic layer region (14A,...,14D) wherein the further electrode region that extends over the first photovoltaic layer region also extends over the electric contacts formed by the exposed ends of the set of one or more electrical conductors (121B, 122B, 123B, 124B) that are formed on the second transparent electrode layer region.
A lighting device configured to provide white light, comprising a plurality of light source packages, each light source package comprising a light source configured to provide white light source light and a polarizer configured to polarize the white light source light of said light source, wherein the light source packages are individually controllable, wherein the light source packages are configured to provide polarized light source light with at least two different polarization states (p1,p2), wherein a first light source package is configured to provide polarized light of a first polarization state and a second light source package is configured to provide polarized light of a second polarization state, wherein the light source packages share a light exit window for escape of the light source light from said lighting device, and wherein each light source package further comprises a reflector (112, 112'), wherein each light source package and the respective reflector (112, 112') are configured to reflect at least part of the white light source light in a direction of the light exit window.
A pharmaceutical composition for use in treating a cancer comprising a therapeutically effective amount of Azelnidipine or a pharmaceutical acceptable salt thereof, wherein the cancer is selected from the group consisting of ovarian cancer, pancreatic cancer, tongue cancer, osteosarcoma, and lung cancer.
A polypeptide having pullulanase activity, selected from the group consisting of: a polypeptide having at least 90% sequence identity to amino acids 34 to 861 of SEQ ID NO: 9 or a polypeptide having at least 95% sequence identity to amino acids 34 to 861 of SEQ ID NO: 11; and wherein relative activity at 67°C compared to at 55°C is higher compared to the relative activity of the enzymes disclosed as SEQ ID NO: 1 and SEQ ID NO: 3 when measured using the PAHBAH assay at pH 5.0..
Method for identifying an application that is executed in an apparatus to another communication participant, characterized by the following method steps: obtaining a connection request for a secure connection between the application and the other communication participant; forming an information element that comprises at least information about the application; signing the information element with a first secret key, which is part of a cryptographic asymmetric key pair that is certified by an information certificate issued by an external trusted authority; incorporating the signed information element into a connection request message; signing the connection request message with a secret device-specific key that is part of a cryptographic asymmetric key pair that is certified by a device-specific certificate of the apparatus; transmitting the connection request message to the other communication participant. obtaining a connection request for a secure connection between the application and the other communication participant; forming an information element that comprises at least information about the application; signing the information element with a first secret key, which is part of a cryptographic asymmetric key pair that is certified by an information certificate issued by an external trusted authority; incorporating the signed information element into a connection request message; signing the connection request message with a secret device-specific key that is part of a cryptographic asymmetric key pair that is certified by a device-specific certificate of the apparatus; transmitting the connection request message to the other communication participant.
A method of machining a groove portion having a predetermined width and depth on a workpiece with a rotary tool comprising a disc-shaped main body and a plurality of cutting inserts mounted on an outer periphery surface of the rotary tool at regular intervals, the plurality of cutting inserts including at least outer edges extending in a direction parallel to the outer periphery surface of the main body, and the groove portion being formed in a shifting direction, the method comprising the successive steps of: setting a rotating direction of the tool at a point at which the outer periphery surface of the rotary tool contacts the workpiece to be inclined at a predetermined angle (α1, α2, α3) with respect to the shifting direction for machining the groove portion, moving the outer periphery surface of the rotary tool to a predetermined depth of cut based on the surface to be machined of the workpiece while the rotary tool is being rotated; and shifting the rotary tool and the workpiece relatively in the shifting direction for machining the groove portion, characterized in that the step of moving the outer periphery surface of the rotary tool to the depth of cut at the predetermined angle and the step of shifting the rotary tool and the workpiece relatively are repeated until the accumulated depth of cut reaches the depth of the groove portion, wherein the predetermined angle is reduced at every time of the repeated steps. setting a rotating direction of the tool at a point at which the outer periphery surface of the rotary tool contacts the workpiece to be inclined at a predetermined angle (α1, α2, α3) with respect to the shifting direction for machining the groove portion, moving the outer periphery surface of the rotary tool to a predetermined depth of cut based on the surface to be machined of the workpiece while the rotary tool is being rotated; and shifting the rotary tool and the workpiece relatively in the shifting direction for machining the groove portion, characterized in that the step of moving the outer periphery surface of the rotary tool to the depth of cut at the predetermined angle and the step of shifting the rotary tool and the workpiece relatively are repeated until the accumulated depth of cut reaches the depth of the groove portion, wherein the predetermined angle is reduced at every time of the repeated steps.
Device for operating a fuel feed system for an internal combustion engine having direct injection having an electric pump which is arranged inside a fuel tank in order to feed fuel from the fuel tank to a fuel accumulator, and which is designed to make available in the fuel accumulator a pressure which is sufficiently high for direct injection, wherein the device is designed: - to perform closed-loop or open-loop control of the rotational speed of the electric pump as a function of a predefined value for a pressure in the fuel accumulator, wherein the device is designed - to determine a current value for the electric pump as a function of the predefined pressure, and - to control the electric pump by means of the determined value of the electrical current for the electric pump, or wherein the device is designed - to determine an estimated value for the pressure in the fuel accumulator as a function of a determined value of the electrical current at the electric pump and a determined value of the electrical voltage at the electric pump, and - to regulate of the electric pump as a function of a difference between the determined estimated value for the pressure and the predefined value for the pressure. - to perform closed-loop or open-loop control of the rotational speed of the electric pump as a function of a predefined value for a pressure in the fuel accumulator, - to determine a current value for the electric pump as a function of the predefined pressure, and - to control the electric pump by means of the determined value of the electrical current for the electric pump, - to determine an estimated value for the pressure in the fuel accumulator as a function of a determined value of the electrical current at the electric pump and a determined value of the electrical voltage at the electric pump, and - to regulate of the electric pump as a function of a difference between the determined estimated value for the pressure and the predefined value for the pressure.
A method for making an oxidized kraft pulp comprising: continuously digesting a softwood cellulose pulp, such as southern pine fiber pulp, to a kappa number of from about 10 to about 16; oxygen delignifying the resulting cellulose pulp to a kappa number of less than 6.5; then bleaching the cellulosic kraft pulp using a multi-stage bleaching process; and oxidizing the kraft pulp during at least one stage of the multi-stage bleaching process with a peroxide and a catalyst under acidic condition, wherein the multi-stage bleaching process comprises at least one alkaline stage and at least one chlorine dioxide bleaching stage following the oxidation stage. continuously digesting a softwood cellulose pulp, such as southern pine fiber pulp, to a kappa number of from about 10 to about 16; oxygen delignifying the resulting cellulose pulp to a kappa number of less than 6.5; then bleaching the cellulosic kraft pulp using a multi-stage bleaching process; and oxidizing the kraft pulp during at least one stage of the multi-stage bleaching process with a peroxide and a catalyst under acidic condition, wherein the multi-stage bleaching process comprises at least one alkaline stage and at least one chlorine dioxide bleaching stage following the oxidation stage.