mhurhangee/patent-ind-claim-en huggingface dataset:
A method for securely controlling operations of a data processing system , comprising: activating a hardware security subsystem to provide security services according to an adjustable set of system security policies, comprising initializing the hardware security subsystem during bootup of the data processing system to verify a bootloader; receiving, at the hardware security subsystem , a security service request from an external application subsystem by receiving as a confirmation message that an application image was successfully installed and verified upon execution of bootloader firmware; evaluating, by the hardware security subsystem , the security service request against the adjustable set of system security policies to determine if the security service request is granted access to a protected asset ; generating, at the hardware security subsystem , a response to the security service request using the protected asset if the security service request is granted access to the protected asset; adjusting, at the hardware security subsystem , a security access policy for the protected asset in the adjustable set of system security policies; and sending the response from the hardware security subsystem to the external application subsystem , characterized in that adjusting the security access policy comprises restricting access to one or more protected assets that are not needed by the external application subsystem after execution of the bootloader firmware. activating a hardware security subsystem to provide security services according to an adjustable set of system security policies, comprising initializing the hardware security subsystem during bootup of the data processing system to verify a bootloader; receiving, at the hardware security subsystem , a security service request from an external application subsystem by receiving as a confirmation message that an application image was successfully installed and verified upon execution of bootloader firmware; evaluating, by the hardware security subsystem , the security service request against the adjustable set of system security policies to determine if the security service request is granted access to a protected asset ; generating, at the hardware security subsystem , a response to the security service request using the protected asset if the security service request is granted access to the protected asset; adjusting, at the hardware security subsystem , a security access policy for the protected asset in the adjustable set of system security policies; and sending the response from the hardware security subsystem to the external application subsystem , characterized in that adjusting the security access policy comprises restricting access to one or more protected assets that are not needed by the external application subsystem after execution of the bootloader firmware.
A manufacturing method of an inclusion compound of 3',5'-cyclic diadenylic acid with water comprising the following steps to : a step of adding acid to an aqueous solution of 3',5'-cyclic diadenylic acid so as to lower pH to 1 to 3, a step of heating the aqueous solution of 3',5'-cyclic diadenylic acid to a temperature in the range 50 to 70 °C, and a step of cooling the aqueous solution of 3',5'-cyclic diadenylic acid until it reaches 1 to 10 °C. a step of adding acid to an aqueous solution of 3',5'-cyclic diadenylic acid so as to lower pH to 1 to 3, a step of heating the aqueous solution of 3',5'-cyclic diadenylic acid to a temperature in the range 50 to 70 °C, and a step of cooling the aqueous solution of 3',5'-cyclic diadenylic acid until it reaches 1 to 10 °C.
An apparatus for detecting an emission light from a sample, and absorbance of a transillumination light by the sample, the apparatus comprising: a first light source configured to emit an excitation light having an excitation wavelength; a second light source configured to transilluminate the sample with the transillumination light ; a first light detector configured to detect the excitation light ; a second light detector configured to detect the emission light and the absorbance of the transillumination light by the sample; characterized in that the second light detector has an emission temperature sensor configured to detect the temperature of the second light detector ; and by a dichroic mirror configured to epi-illuminate the sample by reflecting at least a portion of the excitation light , transmit at least a portion of the excitation light to the first light detector , transmit at least a portion of the emission light to the second light detector , and transmit at least a portion of the transillumination light to the second light detector . a first light source configured to emit an excitation light having an excitation wavelength; a second light source configured to transilluminate the sample with the transillumination light ; a first light detector configured to detect the excitation light ; a second light detector configured to detect the emission light and the absorbance of the transillumination light by the sample; characterized in that the second light detector has an emission temperature sensor configured to detect the temperature of the second light detector ; and by a dichroic mirror configured to epi-illuminate the sample by reflecting at least a portion of the excitation light , transmit at least a portion of the excitation light to the first light detector , transmit at least a portion of the emission light to the second light detector , and transmit at least a portion of the transillumination light to the second light detector .
A medical copolymer of the form {{D r [A n (FB p DC q DB p F)A n ]D r }E} m , wherein A is a polymer comprising aliphatic ester units, B is a polyethylene oxide group, C is a polypropylene oxide group, D is a diisocyanate and F is an optional diisocyanate, E is a chain extender or crosslinking agent, r is the number of polyester groups, q is the number of contiguous propylene oxide groups, p is the number of contiguous polyethylene oxide groups, n is an integer ranging from 20 to 50, and m is the number of repeating units in the polymer molecule and an integer equal to or greater than 2.
A controller for controlling a light source , the controller comprising: - a communication unit for communicating with the light source , - a display for displaying a first image and a second image, - an input unit for receiving a first input indicative of a selection of a first color in the first image, and for receiving a second input indicative of a selection of a second color in the second image, and - a processor for morphing the first image into the second image after the first and second user input have been received, whereby at least one intermediate image in between the first image and the second image is generated, the at least one intermediate image being a mixture of the first image and the second image, and for determining at least one intermediate color based on color information of the at least one intermediate image, and for controlling the light output of the light source according to the first color, the at least one intermediate color and the second color sequentially over a period of time. - a communication unit for communicating with the light source , - a display for displaying a first image and a second image, - an input unit for receiving a first input indicative of a selection of a first color in the first image, and for receiving a second input indicative of a selection of a second color in the second image, and - a processor for morphing the first image into the second image after the first and second user input have been received, whereby at least one intermediate image in between the first image and the second image is generated, the at least one intermediate image being a mixture of the first image and the second image, and for determining at least one intermediate color based on color information of the at least one intermediate image, and for controlling the light output of the light source according to the first color, the at least one intermediate color and the second color sequentially over a period of time.
A closed modular distribution frame, comprising a distribution frame body , wherein the distribution frame body is a closed box body , the closed modular distribution frame further comprises a grounding wire , the grounding wire is mounted inside the distribution frame body , at least two network wiring ports are provided in a sidewall of the box body , and the height of the network wiring ports accounts for less than or equal to 58.3% of the height of the distribution frame body ; the closed modular distribution frame is characterized that, a PCB is further provided in the box body , electric plug cores located in the network wiring ports are provided on the PBC , terminal bases are further provided on the PCB , cable cutters are in plugging connection with the terminal bases , a cable limiting post is provided above each terminal base , a top of each cable cutter stretches into the cable limiting post and is used for cutting a cable in the cable limiting post to contact a conductor in the cable to achieve data transmission.
An optical system , comprising: a fixed part (70, H1, H2); a movable part (20, 30, M, C), for holding an optical module ; and a flexible member (W), connecting the movable part to the fixed part (70, H1, H2) for suppressing the vibration of the optical system at a first frequency; wherein the movable part (20, 30, M, C) has a holder , a frame , and an active damping mechanism (M, C), the holder is movably connected to the frame , and the active damping mechanism (M, C) is disposed on the holder and the frame for suppressing the vibration of the optical system at a second frequency; a connecting member and a plurality of ball elements (B) disposed on the connecting member ; characterized by a plurality of clamps , wherein the clamps are respectively affixed to the holder and the frame , and the ball elements (B) are clamped by the clamps . a fixed part (70, H1, H2); a movable part (20, 30, M, C), for holding an optical module ; and a flexible member (W), connecting the movable part to the fixed part (70, H1, H2) for suppressing the vibration of the optical system at a first frequency; wherein the movable part (20, 30, M, C) has a holder , a frame , and an active damping mechanism (M, C), the holder is movably connected to the frame , and the active damping mechanism (M, C) is disposed on the holder and the frame for suppressing the vibration of the optical system at a second frequency; a connecting member and a plurality of ball elements (B) disposed on the connecting member ; characterized by a plurality of clamps , wherein the clamps are respectively affixed to the holder and the frame , and the ball elements (B) are clamped by the clamps .
A portable tool comprising: a frame configured to be hand held; a working head coupled to the frame and configured to perform at least one action; a camera coupled to the frame ; and a controller for controlling the operation of the working head and the camera , wherein a video of a working area can be presented to an operator for viewing the at least one action of the working head and the controller configured to control at least one sensor and monitoring and analysing at least one parameter of the tool ; the controller including a microcontroller ; characterised in that the microcontroller is configured to receive commands from an external computing device connected to the tool , to initiate remote operation of the tool . a frame configured to be hand held; a working head coupled to the frame and configured to perform at least one action; a camera coupled to the frame ; and a controller for controlling the operation of the working head and the camera , wherein a video of a working area can be presented to an operator for viewing the at least one action of the working head and the controller configured to control at least one sensor and monitoring and analysing at least one parameter of the tool ; the controller including a microcontroller ; characterised in that the microcontroller is configured to receive commands from an external computing device connected to the tool , to initiate remote operation of the tool .
A method of encapsulating a substrate having at least the following layers: a Si-CMOS device layer , a layer of first semiconductor material different to silicon, and a layer of second semiconductor material , the first semiconductor material being a group III-V semiconductor material or a material formed from combining different group III-V semiconductor materials, the second semiconductor material includes silicon, the layer of first semiconductor material arranged intermediate the Si-CMOS device layer and the layer of second semiconductor material such that adjoining edges of the layer of first semiconductor material, the Si-CMOS device layer and the layer of second semiconductor material define a circumferential edge of the substrate, the method comprising: (i) circumferentially removing a portion of the circumferential edge, the portion removed comprising a portion of the Si-CMOS device layer, a portion of the layer of first semiconductor material and a portion of a section of the edge of the layer of second semiconductor material ; and (ii) depositing a dielectric material on the substrate to replace the portion removed at step (i) for encapsulating at least the Si-CMOS device layer and the layer of first semiconductor material such that the layer of first semiconductor material is unexposed, wherein an adjoining section of the layer of second semiconductor material serves as a base to support the deposited dielectric material . (i) circumferentially removing a portion of the circumferential edge, the portion removed comprising a portion of the Si-CMOS device layer, a portion of the layer of first semiconductor material and a portion of a section of the edge of the layer of second semiconductor material ; and (ii) depositing a dielectric material on the substrate to replace the portion removed at step (i) for encapsulating at least the Si-CMOS device layer and the layer of first semiconductor material such that the layer of first semiconductor material is unexposed, wherein an adjoining section of the layer of second semiconductor material serves as a base to support the deposited dielectric material .
A straddled vehicle , comprising: a body frame ; an engine ; a throttle device configured to control an intake air amount of the engine ; an ignition device including a spark plug , a plug cord connected to the spark plug , and an ignition coil connected to the plug cord ; and a supporting portion , the engine including: a cylinder member having a cylinder bore centering on a cylinder axis (B); a cylinder head ; and a head cover , the throttle device including: a throttle valve ; and the spark plug being attached to the cylinder head , the ignition coil including: a casing ; a secondary terminal attached to the casing and connected to the plug cord ; and a flange attached to the casing and connected to the supporting portion ; at least part of the ignition coil being located in front of the cylinder axis (B) in side view of the straddled vehicle , characterized in that said engine is fixed to said body frame ; said supporting portion being configured to support the ignition coil and supported by the head cover ; said head cover being provided above said cylinder head ; said cylinder head being provided above the cylinder member ; said throttle device being located behind the cylinder head ; said supporting portion electrically connecting said head cover to said flange ; said straddle vehicle further comprising a magnetic sensor configured to detect a position of the throttle valve . a body frame ; an engine ; a throttle device configured to control an intake air amount of the engine ; an ignition device including a spark plug , a plug cord connected to the spark plug , and an ignition coil connected to the plug cord ; and a supporting portion , the engine including: a cylinder member having a cylinder bore centering on a cylinder axis (B); a cylinder head ; and a head cover , a cylinder member having a cylinder bore centering on a cylinder axis (B); a cylinder head ; and a head cover , the throttle device including: a throttle valve ; and the spark plug being attached to the cylinder head , the ignition coil including: a casing ; a secondary terminal attached to the casing and connected to the plug cord ; and a flange attached to the casing and connected to the supporting portion ; a casing ; a secondary terminal attached to the casing and connected to the plug cord ; and a flange attached to the casing and connected to the supporting portion ; at least part of the ignition coil being located in front of the cylinder axis (B) in side view of the straddled vehicle , said cylinder head being provided above the cylinder member ; said throttle device being located behind the cylinder head ; said supporting portion electrically connecting said head cover to said flange ; said straddle vehicle further comprising a magnetic sensor configured to detect a position of the throttle valve .
A composite powder in which jade powder particles are impregnated in a porous polymer.
An integrated additive machining cell system for fabricating a component part comprising: an additive manufacturing cell configured to perform an additive manufacturing process to grow a component part according to software files; a heat treatment furnace configured to heat treat a grown component part to relieve component part stress after growth; a common cell comprising a plurality of modules configured to perform a plurality of different secondary operations on a grown component part either sequentially or simultaneously; and a robotic cart configured to couple the additive manufacturing cell , furnace and common cell together, and configured to transfer a grown component part from the additive manufacturing cell to the heat treatment furnace and then from the heat treatment furnace to the common cell , wherein the grown component part is near net-shape and the subsequent sequential and simultaneous secondary operations complete the component part fabrication. an additive manufacturing cell configured to perform an additive manufacturing process to grow a component part according to software files; a heat treatment furnace configured to heat treat a grown component part to relieve component part stress after growth; a common cell comprising a plurality of modules configured to perform a plurality of different secondary operations on a grown component part either sequentially or simultaneously; and a robotic cart configured to couple the additive manufacturing cell , furnace and common cell together, and configured to transfer a grown component part from the additive manufacturing cell to the heat treatment furnace and then from the heat treatment furnace to the common cell , wherein the grown component part is near net-shape and the subsequent sequential and simultaneous secondary operations complete the component part fabrication.
A separator for an electrochemical device which comprises an electrolyte-holding layer comprising: a non-woven web layer; and an electrode reactive layer disposed on one surface of the non-woven web layer, wherein the electrode reactive layer comprises a carbide of organic polymer material, has a porous structure and is disposed at the outermost side of at least one surface of both surfaces of the separator, characterized in that the electrode reactive layer is formed integrally with the non-woven web layer by the carbonization of the surface portion of the non-woven web substrate through pyrolysis. wherein the electrode reactive layer comprises a carbide of organic polymer material, has a porous structure and is disposed at the outermost side of at least one surface of both surfaces of the separator, characterized in that the electrode reactive layer is formed integrally with the non-woven web layer by the carbonization of the surface portion of the non-woven web substrate through pyrolysis.
A method of manufacturing a backlight unit for a 3D image display, the method comprising: preparing a stamp including grating patterns which have equal heights; coating a surface of a light guiding plate with discrete amounts of a resin , wherein the discrete amounts of resin are separated from each other and vary in amount depending on their location on the surface; filling or partially filling the resin in spaces between the grating patterns by pressing the stamp into the discrete amounts of resin such that heights of the resin from the surface of the light guiding plate in the spaces between the grating patterns vary along the surface correspondingly to the variation of the resin amount; and forming a diffraction grating structure including diffraction gratings having different heights on the surface of the light guiding plate by curing the resin . preparing a stamp including grating patterns which have equal heights; coating a surface of a light guiding plate with discrete amounts of a resin , wherein the discrete amounts of resin are separated from each other and vary in amount depending on their location on the surface; filling or partially filling the resin in spaces between the grating patterns by pressing the stamp into the discrete amounts of resin such that heights of the resin from the surface of the light guiding plate in the spaces between the grating patterns vary along the surface correspondingly to the variation of the resin amount; and forming a diffraction grating structure including diffraction gratings having different heights on the surface of the light guiding plate by curing the resin .
A process of forming an oxide dispersion strengthened alloy, comprising: distributing an alloy powder on a platform ; applying a uniform nanometer scale metal oxide onto said alloy powder , wherein said nanometer-scale metal oxide comprises polynuclear metal oxide-hydroxide clusters; applying an energy beam onto said alloy powder and said nanometer-scale metal oxide, so as to form an oxide dispersion strengthened alloy, wherein said nanometer-scale metal oxide is uniformly dispersed throughout said oxide dispersion strengthened alloy, and the oxides are between 1 nanometers and 300 nanometers in diameter. distributing an alloy powder on a platform ; applying a uniform nanometer scale metal oxide onto said alloy powder , wherein said nanometer-scale metal oxide comprises polynuclear metal oxide-hydroxide clusters; applying an energy beam onto said alloy powder and said nanometer-scale metal oxide, so as to form an oxide dispersion strengthened alloy, wherein said nanometer-scale metal oxide is uniformly dispersed throughout said oxide dispersion strengthened alloy, and the oxides are between 1 nanometers and 300 nanometers in diameter.
Compound for the preparation of rubber products, comprising a cross-linkable unsaturated chain polymer base, a reinforcing filler and a vulcanization system; said vulcanization system comprising at least sulfur, one or more vulcanization accelerants and a vulcanization activator; said compound being characterized in that said vulcanization activator is exclusively halogenated graphite; said compound comprising neither stearic acid nor zinc oxide.