mhurhangee/patent-ind-claim-en huggingface dataset:
A rear cover , comprising a ceramic outer housing and an inner housing made of a fiber reinforced composite, wherein the inner housing is disposed on an inner surface of the ceramic outer housing ; further comprising an adhesive layer , wherein the adhesive layer is located between the ceramic outer housing and the inner housing , and the ceramic outer housing , the adhesive layer , and the inner housing are press-fitted to form the rear cover ; characterized in that an orthographic projection of the inner housing toward the inner surface of the ceramic outer housing partially covers the inner surface of the ceramic outer housing ; wherein the ceramic outer housing comprises a planar region and an arc-shaped region, the arc-shaped region is located at an outer edge of the planar region, and the inner housing covers an entire inner surface of the planar region and a partial inner surface of the arc-shaped region, wherein a thickness (H2) of a part of the arc-shaped region is greater than a thickness (H1) of the planar region. further comprising an adhesive layer , wherein the adhesive layer is located between the ceramic outer housing and the inner housing , and the ceramic outer housing , the adhesive layer , and the inner housing are press-fitted to form the rear cover ; characterized in that an orthographic projection of the inner housing toward the inner surface of the ceramic outer housing partially covers the inner surface of the ceramic outer housing ; wherein the ceramic outer housing comprises a planar region and an arc-shaped region, the arc-shaped region is located at an outer edge of the planar region, and the inner housing covers an entire inner surface of the planar region and a partial inner surface of the arc-shaped region, wherein a thickness (H2) of a part of the arc-shaped region is greater than a thickness (H1) of the planar region.
A computer-implemented method for processing blockchain data in a trusted execution environment (TEE) executing on a computing device communicably coupled to a blockchain network, the method comprising: receiving a request from a blockchain node to be removed from the blockchain network; identifying a plurality of blocks associated with blockchain data stored by the blockchain node; determining, for each block in the plurality of blocks: a first difference between a total number of remaining blockchain nodes of the blockchain network excluding the blockchain node requesting to be removed and a maximum number of faulty blockchain nodes tolerable by the remaining blockchain nodes, a second difference between a first number of the remaining blockchain nodes that store a dataset of information bits or redundant bits divided from an error correction coding (ECC) encoded version of the block and a second number of the remaining blockchain nodes that store a dataset of redundant bits divided from the ECC encoded version of the block, and whether the first difference is less than the second difference; and retrieving blockchain data associated with the block from the blockchain node in response to determining that the first difference is less than the second difference. receiving a request from a blockchain node to be removed from the blockchain network; identifying a plurality of blocks associated with blockchain data stored by the blockchain node; determining, for each block in the plurality of blocks: a first difference between a total number of remaining blockchain nodes of the blockchain network excluding the blockchain node requesting to be removed and a maximum number of faulty blockchain nodes tolerable by the remaining blockchain nodes, a second difference between a first number of the remaining blockchain nodes that store a dataset of information bits or redundant bits divided from an error correction coding (ECC) encoded version of the block and a second number of the remaining blockchain nodes that store a dataset of redundant bits divided from the ECC encoded version of the block, and whether the first difference is less than the second difference; and a first difference between a total number of remaining blockchain nodes of the blockchain network excluding the blockchain node requesting to be removed and a maximum number of faulty blockchain nodes tolerable by the remaining blockchain nodes, a second difference between a first number of the remaining blockchain nodes that store a dataset of information bits or redundant bits divided from an error correction coding (ECC) encoded version of the block and a second number of the remaining blockchain nodes that store a dataset of redundant bits divided from the ECC encoded version of the block, and whether the first difference is less than the second difference; and retrieving blockchain data associated with the block from the blockchain node in response to determining that the first difference is less than the second difference.
A method for circular knitting by using a knitting machine, wherein the knit is formed from a plurality of rows of stitches knitted with a stitch-forming yarn , and comprises at least one dense zone , the dense zone or zones being produced by knitting alternately, on each row of stitches, of a first row of jersey stitches (M1) and a second row of jersey stitches (M2), such as: - the first row of jersey stitches (M1) is knitted on a first selection of needles, and includes at least one tuck stitch within the row of jersey stitches, so as to form binding points with the sinker loops of the second row of stitches (M2), - the second row of jersey stitches (M2) is knitted with a second selection of needles and includes knitting with a reinforcing yarn in addition to the stitch-forming yarn , characterised in that the said method further comprises knitting a weft yarn between each row of stitches (M1, M2 ; M2, M1). - the first row of jersey stitches (M1) is knitted on a first selection of needles, and includes at least one tuck stitch within the row of jersey stitches, so as to form binding points with the sinker loops of the second row of stitches (M2), - the second row of jersey stitches (M2) is knitted with a second selection of needles and includes knitting with a reinforcing yarn in addition to the stitch-forming yarn , characterised in that the said method further comprises knitting a weft yarn between each row of stitches (M1, M2 ; M2, M1).
A virtual reality head-mounted apparatus, comprising: a main body , the main body being provided with a convex lens ; and a partial-reflection partial-transmission lens for reflecting infrared light provided in the main body , the partial-reflection partial-transmission lens being located on a side of the convex lens closer to a user, wherein the partial-reflection partial-transmission lens comprises an upper lens structure and a lower lens structure disposed obliquely, and a joint of the upper lens structure and the lower lens structure faces the user; a first camera and a second camera , wherein the first camera is located at a top of the main body and a lens of the first camera is disposed obliquely downward corresponding to the upper lens structure , and the second camera is located at a bottom of the main body and a lens of the second camera is disposed obliquely upward corresponding to the lower lens structure , and wherein a lens surface of the upper lens structure facing the user is inclined upward to reflect an infrared image of an eye of the user to the first camera, and a lens surface of the lower lens structure facing the user is inclined downward to reflect an infrared image of the eye of the user to the second camera. a main body , the main body being provided with a convex lens ; and a partial-reflection partial-transmission lens for reflecting infrared light provided in the main body , the partial-reflection partial-transmission lens being located on a side of the convex lens closer to a user, wherein the partial-reflection partial-transmission lens comprises an upper lens structure and a lower lens structure disposed obliquely, and a joint of the upper lens structure and the lower lens structure faces the user; a first camera and a second camera , wherein the first camera is located at a top of the main body and a lens of the first camera is disposed obliquely downward corresponding to the upper lens structure , and the second camera is located at a bottom of the main body and a lens of the second camera is disposed obliquely upward corresponding to the lower lens structure , and wherein a lens surface of the upper lens structure facing the user is inclined upward to reflect an infrared image of an eye of the user to the first camera, and a lens surface of the lower lens structure facing the user is inclined downward to reflect an infrared image of the eye of the user to the second camera.
A system , comprising: a dental handpiece ; characterized in that the system comprises a wearable controller including a fluid reservoir and a battery ; and a conduit connecting the wearable controller and the dental handpiece, the conduit providing fluid communication between the dental handpiece and the fluid reservoir. a dental handpiece ; characterized in that the system comprises a wearable controller including a fluid reservoir and a battery ; and a conduit connecting the wearable controller and the dental handpiece, the conduit providing fluid communication between the dental handpiece and the fluid reservoir.
Method for controlling a control arrangement for a training simulation, comprising the following steps: providing measurement data for operation of a network control centre device by way of a provisioning device , and feeding in emergency data indicating a malfunction of the operation of the control arrangement into the network control centre device by way of an emergency device , generating control signals by way of the network control centre device to rectify the malfunction, and measuring body function data (P) of a user of the control arrangement by way of a body function measuring device, and evaluating a temporal profile of the body function data (P) taking into account the time period (t s ..t E ) of the malfunction by way of an evaluation device in order to determine a stress value, characterized in that emergency data are fed in and control signals are generated repeatedly until the stress value during a malfunction is below a previously defined threshold value. providing measurement data for operation of a network control centre device by way of a provisioning device , and feeding in emergency data indicating a malfunction of the operation of the control arrangement into the network control centre device by way of an emergency device , generating control signals by way of the network control centre device to rectify the malfunction, and measuring body function data (P) of a user of the control arrangement by way of a body function measuring device, and evaluating a temporal profile of the body function data (P) taking into account the time period (t s ..t E ) of the malfunction by way of an evaluation device in order to determine a stress value, characterized in that emergency data are fed in and control signals are generated repeatedly until the stress value during a malfunction is below a previously defined threshold value.
Method for assisting a driver of a vehicle , wherein the vehicle comprises a driving assistance system which permits at least temporary autonomous driving, and after the end of the autonomous driving requests the driver, by means of a signal, to take over the lateral guidance of the vehicle , wherein after the request to take over lateral guidance the steering of the vehicle is stiffened for a predefined time period (T), characterized in that the steering is stiffened by a) reducing power steering assistance within the predefined time period (T) and/or b) apply an opposing torque which is opposed to a steering movement of the driver if the steering movement takes place within the predefined time period (T), and/or c) changing a steering transmission ratio during the predefined time period (T) in such a way that steering wheel lock values result in reduced wheel steering lock values, wherein the predefined time period (T) is selected as a function of the speed of the vehicle , a distance from an obstacle, a distance from a lane boundary or a combination of a plurality of these parameters, and wherein the predefined time period (T) for the stiffening of the steering starts at the time at which the driver grips a steering wheel or the predefined time period (T) starts at the time at which the driver starts to steer. a) reducing power steering assistance within the predefined time period (T) and/or b) apply an opposing torque which is opposed to a steering movement of the driver if the steering movement takes place within the predefined time period (T), and/or c) changing a steering transmission ratio during the predefined time period (T) in such a way that steering wheel lock values result in reduced wheel steering lock values,
A method of controlling radio connections in a cellular network, the method comprising: monitoring an offset applied by at least one access node of the cellular network to adapt a signal quality value determined for a radio connection to a communication device , the adapted signal quality value being applied in a first control loop to select a modulation and coding scheme for the radio connection, and the offset being adapted in a second control loop, starting from an initial value and depending on feedback information for transmissions on the radio connection; and depending on the monitored offset, determining the initial value of the offset to be applied by the at least one access node with respect to further radio connections to communication devices , wherein the determining utilizes the monitored offset of only a plurality of radio connections with transmission activity exceeding a threshold value. monitoring an offset applied by at least one access node of the cellular network to adapt a signal quality value determined for a radio connection to a communication device , the adapted signal quality value being applied in a first control loop to select a modulation and coding scheme for the radio connection, and the offset being adapted in a second control loop, starting from an initial value and depending on feedback information for transmissions on the radio connection; and depending on the monitored offset, determining the initial value of the offset to be applied by the at least one access node with respect to further radio connections to communication devices , wherein the determining utilizes the monitored offset of only a plurality of radio connections with transmission activity exceeding a threshold value.
An electronic device , wherein the electronic device comprises: a printed circuit board , wherein the printed circuit board comprises mounting holes ; and a module , wherein the module comprises: an electronic component ; electrically conductive needles electrically coupling the electronic component with the printed circuit board ; an enclosure comprising a housing at least partially enclosing the electronic component and the needles , the housing defining a module interface at which the module is mounted to the printed circuit board ; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component , wherein the needles extend through the sealing and the mounting holes . a printed circuit board , wherein the printed circuit board comprises mounting holes ; and a module , wherein the module comprises: an electronic component ; electrically conductive needles electrically coupling the electronic component with the printed circuit board ; an enclosure comprising a housing at least partially enclosing the electronic component and the needles , the housing defining a module interface at which the module is mounted to the printed circuit board ; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component , wherein the needles extend through the sealing and the mounting holes . an electronic component ; electrically conductive needles electrically coupling the electronic component with the printed circuit board ; an enclosure comprising a housing at least partially enclosing the electronic component and the needles , the housing defining a module interface at which the module is mounted to the printed circuit board ; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component , wherein the needles extend through the sealing and the mounting holes .
A surgical end effector, comprising: a first jaw ; a second jaw comprising a closure surface and an opening surface ; a pivot joint , wherein said second jaw is configured to pivot relative to said first jaw at said pivot joint; a firing member configured to move distally from a home position during a firing stroke, wherein said firing member comprises: a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring. a first jaw ; a second jaw comprising a closure surface and an opening surface ; a pivot joint , wherein said second jaw is configured to pivot relative to said first jaw at said pivot joint; a firing member configured to move distally from a home position during a firing stroke, wherein said firing member comprises: a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring. a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring.
Scale for a length measuring system for recording the absolute value of angles or paths, comprising a conductor plate and at least one track on the conductor plate for marking length and angle data as well as a coding for marking the scale , characterised in that the coding has at least one coding element which comprises at least two electrodes and an electrically conductive connection between the electrodes on an insulator substrate, wherein the conductive connection is set up to be destroyed irreversibly by selectively applying an electric current to at least one coding element in order to mark the scale .
A Device to Device, D2D, communication method, applied to a first user equipment, UE, comprising the steps of: the first UE determining a location of a resource configured in a first scheduling window for D2D communication data reception ; and the first UE receiving D2D communication data packets sent by a second UE on the resource of which the location is determined , wherein the first scheduling window refers to: Hybrid Automatic Repeat reQuest, HARQ, scheduling window, corresponding scheduled resource allocation, SA, window in D2D communication, or joint scheduling window for a plurality of data packets; characterized by using, in a non-coverage scenario, a predefined offset between the location of the retransmitted data packet in a retransmission scheduling window corresponding to current first scheduling window and the location of the firstly-transmitted data packet in the first scheduling window, and the predefined offset is determined according to at least one of a first user ID of the first UE, a second user ID of the second UE and an offset indicated by scheduling information. the first UE determining a location of a resource configured in a first scheduling window for D2D communication data reception ; and the first UE receiving D2D communication data packets sent by a second UE on the resource of which the location is determined , wherein the first scheduling window refers to: Hybrid Automatic Repeat reQuest, HARQ, scheduling window, corresponding scheduled resource allocation, SA, window in D2D communication, or joint scheduling window for a plurality of data packets; characterized by using, in a non-coverage scenario, a predefined offset between the location of the retransmitted data packet in a retransmission scheduling window corresponding to current first scheduling window and the location of the firstly-transmitted data packet in the first scheduling window, and the predefined offset is determined according to at least one of a first user ID of the first UE, a second user ID of the second UE and an offset indicated by scheduling information.
A method of processing a material (5;55), the material (5;55) being the upper layer from a metal melting process (1;51), the upper layer being a slag, the slag (5;55) containing one or more salts, the slag (5;55) containing one or more metals, the method including: a) feeding the slag (5;55) to a slag press (7;57) and compressing the slag (5;55); b) feeding the compressed slag (5;55) to a size reduction; wherein a) and b) are provided before the temperature of the slag (5;55) removed from a furnace (1;51) has reduced below 350°C; the method further including: c) reducing one or more dimensions of the compressed slag in a size reduction step, the size reduction step including a crushing step; d) feeding the crushed slag (5;55) to a leaching step (21;71); e) obtaining a leachate from the leaching step (21;71); f) feeding the leachate to a spray drying step ; g) obtaining a solid from the spray drying step . a) feeding the slag (5;55) to a slag press (7;57) and compressing the slag (5;55); b) feeding the compressed slag (5;55) to a size reduction; wherein a) and b) are provided before the temperature of the slag (5;55) removed from a furnace (1;51) has reduced below 350°C; the method further including: c) reducing one or more dimensions of the compressed slag in a size reduction step, the size reduction step including a crushing step; d) feeding the crushed slag (5;55) to a leaching step (21;71); e) obtaining a leachate from the leaching step (21;71); f) feeding the leachate to a spray drying step ; g) obtaining a solid from the spray drying step .