mhurhangee/patent-ind-claim-en huggingface dataset:
A cable fixation structure (3000/3100/3200/3300/3400/3500) for fixing at least a portion of a fiber optic cable to a telecommunications fixture against strain relief, the structure (3000/3100/3200/3300/3400/3500) comprising: a cable bracket portion (3004/3104/3204/3304/3504) and a base portion (3002/3102/3202/3302/3502), wherein the cable bracket portion (3004/3104/3204/3304/3504) is configured for fixing the at least a portion of the fiber optic cable and the base (3002/3102/3202/3302/3502) is configured for routing fibers extending from the fiber optic cable, the cable fixation structure characterized in that the cable bracket portion (3004/3104/3204/3304/3504) is provided at an acute angle with respect to a vertical plane passing through a longitudinal axis (L) defined by the base portion (3002/3102/3202/3302/3502).
Assembly comprising a plastic part, a basic part and a screw, where an oval opening is made in the plastic part to allow the screw to be positioned against a threaded opening in the basic part, characterized in that the oval opening of the plastic part is provided with a projecting continuous circumferential projection and a cylindrical spacer is provided with a circumferential groove on its outer circumference, wherein the continuous circumferential projection is provided in the oval opening at a height corresponding to the position of the groove on the outer circumference of the cylindrical spacer .
A method for cold rolling bright aluminium rolled products comprising: (a) Providing a first aluminium alloy rolled product (b) Rolling said first product with a rolling mill having at least one work roll ground to a finish , with a roughness R a less than 1 μm, and using a rolling lubricant from a first container comprising less than 150 mg/L of aluminium debris to obtain a second aluminium rolled product having at least one bright surface, (c) Transferring at least a portion of said rolling lubricant to a second container (d) Filtering the lubricant from said second container by using cross flow filtration through a membrane , to obtain a cleaned rolling lubricant comprising less than 10 mg/L and preferably less than 5 mg/L of aluminium debris preferentially having a mean diameter of less than 2 μm, (e) Returning said cleaned rolling lubricant to the first container. (a) Providing a first aluminium alloy rolled product (b) Rolling said first product with a rolling mill having at least one work roll ground to a finish , with a roughness R a less than 1 μm, and using a rolling lubricant from a first container comprising less than 150 mg/L of aluminium debris to obtain a second aluminium rolled product having at least one bright surface, (c) Transferring at least a portion of said rolling lubricant to a second container (d) Filtering the lubricant from said second container by using cross flow filtration through a membrane , to obtain a cleaned rolling lubricant comprising less than 10 mg/L and preferably less than 5 mg/L of aluminium debris preferentially having a mean diameter of less than 2 μm, (e) Returning said cleaned rolling lubricant to the first container.
A computing system for handling a chain of trust, whereby the computing system comprising: a non-secure device , comprising: a receiving module , for receiving a signal for activating the non-secure device; and a secure device , coupled to the non-secure device, comprising: a root of trust, RoT, module , for verifying at least one first signature of a bootloader for the non-secure device, wherein the bootloader is stored in the RoT module; and a transmitting module , coupled to the RoT module, for transmitting the signal to the receiving module to activate the non-secure device, after the at least one first signature is verified as successful; wherein the non-secure device loads the bootloader from the RoT module, after the receiving module receives the signal from the transmitting module. a non-secure device , comprising: a receiving module , for receiving a signal for activating the non-secure device; and a secure device , coupled to the non-secure device, comprising: a root of trust, RoT, module , for verifying at least one first signature of a bootloader for the non-secure device, wherein the bootloader is stored in the RoT module; and a transmitting module , coupled to the RoT module, for transmitting the signal to the receiving module to activate the non-secure device, after the at least one first signature is verified as successful; a root of trust, RoT, module , for verifying at least one first signature of a bootloader for the non-secure device, wherein the bootloader is stored in the RoT module; and a transmitting module , coupled to the RoT module, for transmitting the signal to the receiving module to activate the non-secure device, after the at least one first signature is verified as successful; wherein the non-secure device loads the bootloader from the RoT module, after the receiving module receives the signal from the transmitting module.
A method for refurbishing a wind turbine , the method comprising: terminating use of an existing uptower electrical system and an existing downtower electrical system of the wind turbine ; installing a new updated more technologically advanced uptower electrical system and a new updated more technologically advanced downtower electrical system for the wind turbine in an uptower location in a nacelle of the wind turbine and a downtower location of the wind turbine within or outside of a tower of the wind turbine , respectively; providing an electrical adaptor for connecting the new updated uptower electrical system with the new updated downtower electrical system ; and electrically connecting the electrical adaptor between the new updated uptower electrical system and the new updated downtower electrical system comprising: electrically connecting the electrical adaptor to a first cable bundle electrically connected to the new updated uptower electrical system and a second cable bundle electrically connected to the new updated downtower electrical system , wherein the second cable bundle comprises more cables than the first cable bundle and/or cables of the first cable bundle are constructed of a different material than cables of the second cable bundle. terminating use of an existing uptower electrical system and an existing downtower electrical system of the wind turbine ; installing a new updated more technologically advanced uptower electrical system and a new updated more technologically advanced downtower electrical system for the wind turbine in an uptower location in a nacelle of the wind turbine and a downtower location of the wind turbine within or outside of a tower of the wind turbine , respectively; providing an electrical adaptor for connecting the new updated uptower electrical system with the new updated downtower electrical system ; and electrically connecting the electrical adaptor between the new updated uptower electrical system and the new updated downtower electrical system comprising: electrically connecting the electrical adaptor to a first cable bundle electrically connected to the new updated uptower electrical system and a second cable bundle electrically connected to the new updated downtower electrical system , wherein the second cable bundle comprises more cables than the first cable bundle and/or cables of the first cable bundle are constructed of a different material than cables of the second cable bundle. electrically connecting the electrical adaptor to a first cable bundle electrically connected to the new updated uptower electrical system and a second cable bundle electrically connected to the new updated downtower electrical system , wherein the second cable bundle comprises more cables than the first cable bundle and/or cables of the first cable bundle are constructed of a different material than cables of the second cable bundle.
Method for desizing and/or shrinking a textile fabric, the textile fabric having a length and a width, the method comprising moving lengthwise the fabric, and: wetting the fabric within a first pool of liquid, the first pool of liquid comprising water; passing the wetted fabric through a chamber , and in said chamber contacting the fabric with at least one heatable roller heated at a treatment temperature of between 80°C and 160°C; soaking the previously heated fabric by means of a main pool of liquid, the main pool of liquid comprising water; treating the previously soaked fabric with ozone gas. wetting the fabric within a first pool of liquid, the first pool of liquid comprising water; passing the wetted fabric through a chamber , and in said chamber contacting the fabric with at least one heatable roller heated at a treatment temperature of between 80°C and 160°C; soaking the previously heated fabric by means of a main pool of liquid, the main pool of liquid comprising water; treating the previously soaked fabric with ozone gas.
A vacuum coating device, comprising: a crucible ; an induction heater provided on the periphery of the crucible ; a flow distribution box connected to the top of said crucible via a steam pipe , wherein said flow distribution box is provided inside with a horizontal pressure stabilizing plate , said flow distribution box is connected on the top with a nozzle , said steam pipe is provided with a pressure regulating valve ; said pressure stabilizing plate has a multi-hole structure, the lower surface of said pressure stabilizing plate is connected to a horizontal flow suppression plate , and a space is formed between the side of said flow suppression plate and the inner wall of said flow distribution box ; the flow suppression plate is facing an outlet of the steam pipe ; a jet moderating zone is formed between the joint where said flow distribution box and said steam pipe are connected and the lower surface of said pressure stabilizing plate , and a jet accelerating zone is formed between the upper surface of said pressure stabilizing plate and the joint where said flow distribution box and said nozzle are connected, wherein said pressure stabilizing plate has a T-shaped section, the ends along the horizontal direction of said pressure stabilizing plate are connected to the inner wall of said flow distribution box , and the end along the vertical direction of said pressure stabilizing plate is connected to said flow suppression plate . a crucible ; an induction heater provided on the periphery of the crucible ; a flow distribution box connected to the top of said crucible via a steam pipe , wherein said flow distribution box is provided inside with a horizontal pressure stabilizing plate , said flow distribution box is connected on the top with a nozzle , said steam pipe is provided with a pressure regulating valve ; said pressure stabilizing plate has a multi-hole structure, the lower surface of said pressure stabilizing plate is connected to a horizontal flow suppression plate , and a space is formed between the side of said flow suppression plate and the inner wall of said flow distribution box ; the flow suppression plate is facing an outlet of the steam pipe ; a jet moderating zone is formed between the joint where said flow distribution box and said steam pipe are connected and the lower surface of said pressure stabilizing plate , and a jet accelerating zone is formed between the upper surface of said pressure stabilizing plate and the joint where said flow distribution box and said nozzle are connected, wherein said pressure stabilizing plate has a T-shaped section, the ends along the horizontal direction of said pressure stabilizing plate are connected to the inner wall of said flow distribution box , and the end along the vertical direction of said pressure stabilizing plate is connected to said flow suppression plate .
An ultrasonic probe comprising: a matching layer ; a piezoelectric layer that is disposed on a bottom surface of the matching layer and generates ultrasonic waves; and a backing layer that is disposed on a bottom surface of the piezoelectric layer and comprises plate-shaped carbon allotropes and a backing material provided between the plate-shaped carbon allotropes , wherein the backing layer comprises a plurality of layers which are formed in a parallel direction to the piezoelectric layer , and the carbon allotropes include a main frame including horizontal frames, the horizontal frames being parallel to the backing layer and stacked in the parallel direction to the piezoelectric layer on each of the layers of the backing layer , each horizontal frame having a first end and a second end, the carbon allotropes further including a plurality of support frames which are formed in a vertical direction to the piezoelectric layer and being disposed between the horizontal frames so as to support the stacked horizontal frames, wherein the main frame further includes vertical frames, the vertical frames being perpendicular to the backing layer and parallel to the support frames and being disposed between the horizontal frames, each of the vertical frames being alternately disposed at an end of each of the horizontal frames so that each of the plurality of layers of the backing layer alternately presents an open end and an end which is closed by a vertical frame. a matching layer ; a piezoelectric layer that is disposed on a bottom surface of the matching layer and generates ultrasonic waves; and a backing layer that is disposed on a bottom surface of the piezoelectric layer and comprises plate-shaped carbon allotropes and a backing material provided between the plate-shaped carbon allotropes , wherein the backing layer comprises a plurality of layers which are formed in a parallel direction to the piezoelectric layer , and the carbon allotropes include a main frame including horizontal frames, the horizontal frames being parallel to the backing layer and stacked in the parallel direction to the piezoelectric layer on each of the layers of the backing layer , each horizontal frame having a first end and a second end, the carbon allotropes further including a plurality of support frames which are formed in a vertical direction to the piezoelectric layer and being disposed between the horizontal frames so as to support the stacked horizontal frames, wherein the main frame further includes vertical frames, the vertical frames being perpendicular to the backing layer and parallel to the support frames and being disposed between the horizontal frames, each of the vertical frames being alternately disposed at an end of each of the horizontal frames so that each of the plurality of layers of the backing layer alternately presents an open end and an end which is closed by a vertical frame.
Method for inputting a numerical code by means of a portable device, the portable device being represented by a plane (P), wherein the following steps are executed by the device: - measuring a first angle of inclination (α) of the portable device with respect to a first axis (x); - measuring a second angle of inclination (β) of the portable device with respect to a second axis (y); - determining an input numerical code on the basis of a first (c1) and a second (c2) intermediate code, the first intermediate code and the second intermediate code corresponding to the first measured angle of inclination and the second measured angle of inclination, respectively, and varying within a numerical range of two-digit values, the input numerical code being determined by concatenation of the first and second intermediate codes; wherein, if it is determined that the first measured angle or the second measured angle, respectively, lies within an angular range extending between -PA° and +PA°, PA being a predefined angle, the first intermediate code or the second intermediate code, respectively, is determined by calculating the integer part of the sum of the first measured angle or of the second measured angle, respectively, and of the angle PA, multiplied by a fraction 50/PA. - measuring a first angle of inclination (α) of the portable device with respect to a first axis (x); - measuring a second angle of inclination (β) of the portable device with respect to a second axis (y); - determining an input numerical code on the basis of a first (c1) and a second (c2) intermediate code, the first intermediate code and the second intermediate code corresponding to the first measured angle of inclination and the second measured angle of inclination, respectively, and varying within a numerical range of two-digit values, the input numerical code being determined by concatenation of the first and second intermediate codes; wherein, if it is determined that the first measured angle or the second measured angle, respectively, lies within an angular range extending between -PA° and +PA°, PA being a predefined angle, the first intermediate code or the second intermediate code, respectively, is determined by calculating the integer part of the sum of the first measured angle or of the second measured angle, respectively, and of the angle PA, multiplied by a fraction 50/PA.
An inhibitor of the expression of TSC22D4 that is an interfering ribonucleic acid, comprising at least one of the following sequences: 5'- GGACGUGUGUGGAUGUUUA-3' (SEQ ID No. 1); 5'- GGAUGUUUACGAGAGAGAU-3' (SEQ ID No. 3); 5'- AGUCCCACCUCAUGUUUGC-3' (SEQ ID No. 5); or an antisense sequence thereof. 5'- GGACGUGUGUGGAUGUUUA-3' (SEQ ID No. 1); 5'- GGAUGUUUACGAGAGAGAU-3' (SEQ ID No. 3); 5'- AGUCCCACCUCAUGUUUGC-3' (SEQ ID No. 5); or an antisense sequence thereof.
Method of finishing flexographic digital printing plates comprising the following steps: a. providing a plurality of UV-A LEDs and a plurality of UV-C LEDs , the LEDs being placed so that their radiating surfaces face the surface of the plate to be treated; b. providing means for relative movement between the plate being processed, said plurality of UV-A LEDs and said plurality of UV-C LEDs ; c. radiating the surface of the plate to be treated by means of said plurality of UV-A LEDs and said plurality of UV-C LEDs ; d. moving the plate being processed or the plurality of UV-A LEDs and the plurality of UV-C LEDs along a feed direction (x), with such a speed (v) that the entire surface to be treated is radiated by the LEDs for a prefixed time. a. providing a plurality of UV-A LEDs and a plurality of UV-C LEDs , the LEDs being placed so that their radiating surfaces face the surface of the plate to be treated; b. providing means for relative movement between the plate being processed, said plurality of UV-A LEDs and said plurality of UV-C LEDs ; c. radiating the surface of the plate to be treated by means of said plurality of UV-A LEDs and said plurality of UV-C LEDs ; d. moving the plate being processed or the plurality of UV-A LEDs and the plurality of UV-C LEDs along a feed direction (x), with such a speed (v) that the entire surface to be treated is radiated by the LEDs for a prefixed time.
A learning program comprising instructions which, when the learning program is executed by a computer , causes the computer to execute a process for learning to output a shade area in an ultrasound input image, the instructions comprising: inputting the input image to an encoder; inputting an output of the encoder to a shade decoder and a subject decoder, respectively, the shade decoder outputting a shade area in the input image, the subject decoder outputting a subject area in the input image, an output image of the shade decoder and the subject decoder, respectively, having the same size as the input image; calculating a reconstruction error that is an error between the input image and an output image obtained using a combining function to synthesize a shade image that is an output of the shade decoder and a subject image that is an output of the subject decoder, the combining function synthesizing a pixel value of the pixel of coordinate (i,j) in the shade image and a pixel value of the pixel of coordinate (i,j) in the subject image; and executing learning of the encoder, the shade decoder and the subject decoder, based on the reconstruction error calculated at the calculating, on a first likelihood function for the shade image relating to shades in ultrasound images, and on a second likelihood function for the subject image relating to subjects in ultrasound images, the subject reflecting lights and being displayed brightly in the input image, a shade being displayed darkly in the input image. inputting the input image to an encoder; inputting an output of the encoder to a shade decoder and a subject decoder, respectively, the shade decoder outputting a shade area in the input image, the subject decoder outputting a subject area in the input image, an output image of the shade decoder and the subject decoder, respectively, having the same size as the input image; calculating a reconstruction error that is an error between the input image and an output image obtained using a combining function to synthesize a shade image that is an output of the shade decoder and a subject image that is an output of the subject decoder, the combining function synthesizing a pixel value of the pixel of coordinate (i,j) in the shade image and a pixel value of the pixel of coordinate (i,j) in the subject image; and executing learning of the encoder, the shade decoder and the subject decoder, based on the reconstruction error calculated at the calculating, on a first likelihood function for the shade image relating to shades in ultrasound images, and on a second likelihood function for the subject image relating to subjects in ultrasound images, the subject reflecting lights and being displayed brightly in the input image, a shade being displayed darkly in the input image.
A network card, comprising: a crystal oscillator configured to generate a clock pulse signal; a phase-locked loop configured to provide a local clock source for the network card according to the clock pulse signal; and a connector connected with a host, wherein the network card comprises one physical function, abbreviated as PF, module, and N virtual function, abbreviated as VF, modules, each of N virtual machines, abbreviated as VMs, which are run on the host, is bound with a corresponding VF module among the N VF modules, where N≥2, the network card synchronizes time with a server to obtain synchronized time information based on the local clock source, and distributes the synchronized time information to the PF module and each of the N VF modules by means of hardware assisted virtualization based on Single Root I/O Virtualization, SR-IOV, and each of the N VMs directly accesses the synchronized time information in the corresponding VF module bound with itself. a crystal oscillator configured to generate a clock pulse signal; a phase-locked loop configured to provide a local clock source for the network card according to the clock pulse signal; and a connector connected with a host, wherein the network card comprises one physical function, abbreviated as PF, module, and N virtual function, abbreviated as VF, modules, each of N virtual machines, abbreviated as VMs, which are run on the host, is bound with a corresponding VF module among the N VF modules, where N≥2, the network card synchronizes time with a server to obtain synchronized time information based on the local clock source, and distributes the synchronized time information to the PF module and each of the N VF modules by means of hardware assisted virtualization based on Single Root I/O Virtualization, SR-IOV, and each of the N VMs directly accesses the synchronized time information in the corresponding VF module bound with itself.