mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing measurements of one or more WiFi channels in an unlicensed radio spectrum to a cellular radio network, the method comprising: preparing (S100), at a cellular radio network node , a request for measurement of at least one WiFi channel in the unlicensed radio spectrum, the measurement to be provided by at least one user equipment having a WiFi transceiver configured to operate in the unlicensed radio spectrum and a cellular radio transceiver , the at least one WiFi channel being associated with at least one of the at least one user equipment ; transmitting (S102), from the cellular radio network node , the request to the at least one user equipment ; receiving (S104), at the cellular radio network node , from the at least one user equipment , at least one measurement of the at least one WiFi channel in the unlicensed radio spectrum; and performing, at the cellular radio network node , a power saving function based on the at least one measurement, wherein: - the power saving function includes instructing the user equipment cellular radio transceiver to enter a sleep mode when the quality of the WiFi channel is strong, and - the power saving function includes instructing the user equipment WiFi transceiver to enter a sleep mode when the quality of the WiFi channel is poor. preparing (S100), at a cellular radio network node , a request for measurement of at least one WiFi channel in the unlicensed radio spectrum, the measurement to be provided by at least one user equipment having a WiFi transceiver configured to operate in the unlicensed radio spectrum and a cellular radio transceiver , the at least one WiFi channel being associated with at least one of the at least one user equipment ; transmitting (S102), from the cellular radio network node , the request to the at least one user equipment ; receiving (S104), at the cellular radio network node , from the at least one user equipment , at least one measurement of the at least one WiFi channel in the unlicensed radio spectrum; and performing, at the cellular radio network node , a power saving function based on the at least one measurement, wherein: - the power saving function includes instructing the user equipment cellular radio transceiver to enter a sleep mode when the quality of the WiFi channel is strong, and - the power saving function includes instructing the user equipment WiFi transceiver to enter a sleep mode when the quality of the WiFi channel is poor. - the power saving function includes instructing the user equipment cellular radio transceiver to enter a sleep mode when the quality of the WiFi channel is strong, and - the power saving function includes instructing the user equipment WiFi transceiver to enter a sleep mode when the quality of the WiFi channel is poor.
An electrode assembly, in which a positive electrode , a separator , and a negative electrode are repeatedly stacked, the electrode assembly comprising: a shrinkage film made of a material having a thermal shrinkage rate greater than that of the separator , the shrinkage film being shrunk in area at a specific temperature or more, wherein the shrinkage film is disposed instead of the separator at one or more positions between the positive electrode and the negative electrode so that, when the shrinkage film is shrunk by an increase of a temperature, the positive electrode and the negative electrode , which are adjacent to each other with the shrinkage film therebetween, partially contact each other to generate microcurrent. a shrinkage film made of a material having a thermal shrinkage rate greater than that of the separator , the shrinkage film being shrunk in area at a specific temperature or more, wherein the shrinkage film is disposed instead of the separator at one or more positions between the positive electrode and the negative electrode so that, when the shrinkage film is shrunk by an increase of a temperature, the positive electrode and the negative electrode , which are adjacent to each other with the shrinkage film therebetween, partially contact each other to generate microcurrent.
Method for determining a fill level of a filling material in a container using an ultrasonic sensor, in which the ultrasonic sensor is arranged in or on the container above a possible level (p) of a filling material , in which a fill level (h) of the filling material in the container is determined by measuring a distance (d) of a level (p) of a filling material by means of the ultrasonic sensor , in which a learning process is carried out, in particular automatically, for a specific container and a specific filling material prior to a normal measurement mode, wherein, during the learning process by means of the ultrasonic sensor , for at least one fill level (h) of the filling material in the container , a plurality of measurements are carried out by means of the ultrasonic sensor , each with different operating parameters, wherein the operating parameters concern the emission of ultrasonic pulses, the reception of ultrasonic echoes, the evaluation of ultrasonic echoes, and/or a number of measurements per unit time, characterized in that a set of operating parameters is selected, wherein, during the normal measurement mode, measurements are carried out by means of the ultrasonic sensor using the set of operating parameters previously selected in the learning process, wherein the number of measurements carried out for a fill level (h) in the normal measurement mode is smaller than in the learning process. in which the ultrasonic sensor is arranged in or on the container above a possible level (p) of a filling material , in which a fill level (h) of the filling material in the container is determined by measuring a distance (d) of a level (p) of a filling material by means of the ultrasonic sensor , in which a learning process is carried out, in particular automatically, for a specific container and a specific filling material prior to a normal measurement mode, wherein, during the learning process by means of the ultrasonic sensor , for at least one fill level (h) of the filling material in the container , a plurality of measurements are carried out by means of the ultrasonic sensor , each with different operating parameters, wherein the operating parameters concern the emission of ultrasonic pulses, the reception of ultrasonic echoes, the evaluation of ultrasonic echoes, and/or a number of measurements per unit time, characterized in that a set of operating parameters is selected, wherein, during the normal measurement mode, measurements are carried out by means of the ultrasonic sensor using the set of operating parameters previously selected in the learning process, wherein the number of measurements carried out for a fill level (h) in the normal measurement mode is smaller than in the learning process.
A stent comprising: an elastically deformable body that has a predetermined diameter and length and is formed by interlacing wires in the form of a tube; a film part that surrounds to cover at least a portion of the body, extends a predetermined length from one end of the body, and is made of a flexible material; and an anti-inversion part that is connected to the one end of the body from which the film part extends, characterized in that the stent is configured to be placed in the bile duct to facilitate bile secretion into the duodenum the anti-inversion part is configured to prevent the film part from being inverted and folded inwardly toward the body to prevent digested food from the duodenum from entering the gallbladder, and the body is divided into a first region uncovered with the film part and a second region covered with the film part. an elastically deformable body that has a predetermined diameter and length and is formed by interlacing wires in the form of a tube; a film part that surrounds to cover at least a portion of the body, extends a predetermined length from one end of the body, and is made of a flexible material; and an anti-inversion part that is connected to the one end of the body from which the film part extends, characterized in that the stent is configured to be placed in the bile duct to facilitate bile secretion into the duodenum the anti-inversion part is configured to prevent the film part from being inverted and folded inwardly toward the body to prevent digested food from the duodenum from entering the gallbladder, and the body is divided into a first region uncovered with the film part and a second region covered with the film part.
A solvent composition exhibiting azeotrope-like properties and comprising: from 70 to 95.7 weight percent trans-dichloroethylene; from 15 to 3.8 weight percent heptafluorocyclopentane; and from 15 to 0.5 weight percent methylperfluoroheptene ethers. from 70 to 95.7 weight percent trans-dichloroethylene; from 15 to 3.8 weight percent heptafluorocyclopentane; and from 15 to 0.5 weight percent methylperfluoroheptene ethers.
A mattress pad for collecting waste, the mattress pad comprising: a pad sized and shaped to cover at least a portion of a mattress; a retention port located in a central region of the pad where the pelvis of a patient may be positioned, the retention port including one or more openings therein sized and shaped to accommodate a drainage tube therethrough and one or more retainers disposed around an outer boundary thereof, the one or more retainers being configured to hold one or more objects relative to the retention port, the one or more retainers including, one or more first boundary strips attached to the pad and defining an outer boundary of the retention port, the one or more first boundary strips having one or more fasteners thereon; and one or more second boundary strips at least partially corresponding to a shape of the one or more first boundary strips, being free floating, and having fasteners thereon effective to attach the one or more second boundary strips to the one or more first boundary strips, to retain one or more objects therebetween, and to allow the one or more objects to protrude out of the retention port; and one or more attachments disposed on the pad, the one or more attachments being configured to at least temporarily attach the pad to the mattress. a pad sized and shaped to cover at least a portion of a mattress; a retention port located in a central region of the pad where the pelvis of a patient may be positioned, the retention port including one or more openings therein sized and shaped to accommodate a drainage tube therethrough and one or more retainers disposed around an outer boundary thereof, the one or more retainers being configured to hold one or more objects relative to the retention port, the one or more retainers including, one or more first boundary strips attached to the pad and defining an outer boundary of the retention port, the one or more first boundary strips having one or more fasteners thereon; and one or more second boundary strips at least partially corresponding to a shape of the one or more first boundary strips, being free floating, and having fasteners thereon effective to attach the one or more second boundary strips to the one or more first boundary strips, to retain one or more objects therebetween, and to allow the one or more objects to protrude out of the retention port; and one or more attachments disposed on the pad, the one or more attachments being configured to at least temporarily attach the pad to the mattress.
A short focus type projection display device comprising an optical system configured to project an image having a center portion and an outer portion outside the center portion; and circuitry configured to control the movement of a first lens of the optical system to adjust the focusing associated with the outer portion of the projected image, wherein the circuitry is configured to control the movement of a second lens of the optical system to adjust the focusing associated with the center portion of the projected image, and wherein the circuitry is configured to control the movement of the first lens to perform the adjustment of the focusing associated with the outer portion of the projected image independent of performance of the adjustment of the focusing associated with the center portion of the projected image. an optical system configured to project an image having a center portion and an outer portion outside the center portion; and circuitry configured to control the movement of a first lens of the optical system to adjust the focusing associated with the outer portion of the projected image, wherein the circuitry is configured to control the movement of a second lens of the optical system to adjust the focusing associated with the center portion of the projected image, and wherein the circuitry is configured to control the movement of the first lens to perform the adjustment of the focusing associated with the outer portion of the projected image independent of performance of the adjustment of the focusing associated with the center portion of the projected image.
A solar cell, comprising: silicon nitride formed over a first portion of a silicon substrate ; silicon dioxide formed over a second portion of the silicon substrate ; a first doped semiconductor formed on the silicon nitride ; a second doped semiconductor formed on the silicon dioxide ; a positive type metal contact formed over the first doped semiconductor ; and a negative type metal contact formed over the second doped semiconductor. silicon nitride formed over a first portion of a silicon substrate ; silicon dioxide formed over a second portion of the silicon substrate ; a first doped semiconductor formed on the silicon nitride ; a second doped semiconductor formed on the silicon dioxide ; a positive type metal contact formed over the first doped semiconductor ; and a negative type metal contact formed over the second doped semiconductor.
An apparatus comprising: a plurality of execution units; and logic, at least partially including hardware logic, configured to: expose embedded cast operations in at least one of a load instruction or a store instruction; determine, for each layer in a deep learning neural network, DNN, a target precision level for the cast operations, wherein data of a first precision is used to represent weights in a first set of layers of the DNN, and data of a second precision is used to represent weights in a second set of layers of the DNN, said first set comprising the first layers of the DNN and said second set comprising the layers higher than the first layers of the DNN, and wherein the first precision is higher than the second precision; and load the cast operations at the target precision level; wherein: the target precision level is determined to match a hardware capability. a plurality of execution units; and logic, at least partially including hardware logic, configured to: expose embedded cast operations in at least one of a load instruction or a store instruction; determine, for each layer in a deep learning neural network, DNN, a target precision level for the cast operations, wherein data of a first precision is used to represent weights in a first set of layers of the DNN, and data of a second precision is used to represent weights in a second set of layers of the DNN, said first set comprising the first layers of the DNN and said second set comprising the layers higher than the first layers of the DNN, and wherein the first precision is higher than the second precision; and load the cast operations at the target precision level; wherein: the target precision level is determined to match a hardware capability. expose embedded cast operations in at least one of a load instruction or a store instruction; determine, for each layer in a deep learning neural network, DNN, a target precision level for the cast operations, wherein data of a first precision is used to represent weights in a first set of layers of the DNN, and data of a second precision is used to represent weights in a second set of layers of the DNN, said first set comprising the first layers of the DNN and said second set comprising the layers higher than the first layers of the DNN, and wherein the first precision is higher than the second precision; and load the cast operations at the target precision level; wherein: the target precision level is determined to match a hardware capability.
A pre-stressed container or wind turbine tower, pre-stressed by means of a plurality of tensioning elements , having a foundation , at which the plurality of tensioning elements is anchored and having at least one anchor element attached to the foundation , to which at least one tensioning element of the plurality of tensioning elements is anchored, wherein the foundation includes at least one suspension device cast into the foundation , the suspension device includes a lower anchoring, in particular a lower anchor plate , cast into the foundation and wherein the lower anchoring is cast inside a lower third of a foundation slab of the foundation characterized in that the suspension device cast into the foundation extends to an upper side of the foundation or beyond and that the suspension device is attached to the anchor element .
Process for the production of a part (PC) provided with an external element (EH) comprising the following steps: - provide (Md_Sub) an electrically conductive substrate (SB) having an upper surface (SP) and a pattern (MT) forming a recess in said upper surface (SP) - deposit (Md_Cis) an electrically insulating layer (CI) into the pattern (MT) so that the insulating layer (CI) extends as far as the upper surface (SP), the process being characterized by the following steps: - deposit (Md_Cga) a metal layer (CM) onto the upper surface (SP) of the substrate (SB) by galvanic growth so that at the end of this step the metal layer (CM) partly rests on the insulating layer (CI) - dissolve (Md_Dis) the insulating layer (CI) - cover (Md_Enr) an assembly (ES) comprising the substrate (SB) and the metal layer (CM) with a mass (VL) of a base material of the part (PC), wherein the mass (VL) forms an imprint of the assembly (ES) - separate (Md_Dem) the mass (VL) and the metal layer (CM) from the substrate (SB), wherein the mass (VL) then exhibits an external element (EH) with a shape corresponding to the imprint of the pattern (MT). - provide (Md_Sub) an electrically conductive substrate (SB) having an upper surface (SP) and a pattern (MT) forming a recess in said upper surface (SP) - deposit (Md_Cis) an electrically insulating layer (CI) into the pattern (MT) so that the insulating layer (CI) extends as far as the upper surface (SP), the process being characterized by the following steps: - deposit (Md_Cga) a metal layer (CM) onto the upper surface (SP) of the substrate (SB) by galvanic growth so that at the end of this step the metal layer (CM) partly rests on the insulating layer (CI) - dissolve (Md_Dis) the insulating layer (CI) - cover (Md_Enr) an assembly (ES) comprising the substrate (SB) and the metal layer (CM) with a mass (VL) of a base material of the part (PC), wherein the mass (VL) forms an imprint of the assembly (ES) - separate (Md_Dem) the mass (VL) and the metal layer (CM) from the substrate (SB), wherein the mass (VL) then exhibits an external element (EH) with a shape corresponding to the imprint of the pattern (MT). - deposit (Md_Cga) a metal layer (CM) onto the upper surface (SP) of the substrate (SB) by galvanic growth so that at the end of this step the metal layer (CM) partly rests on the insulating layer (CI) - dissolve (Md_Dis) the insulating layer (CI) - cover (Md_Enr) an assembly (ES) comprising the substrate (SB) and the metal layer (CM) with a mass (VL) of a base material of the part (PC), wherein the mass (VL) forms an imprint of the assembly (ES) - separate (Md_Dem) the mass (VL) and the metal layer (CM) from the substrate (SB), wherein the mass (VL) then exhibits an external element (EH) with a shape corresponding to the imprint of the pattern (MT).
Installation for manufacturing a thermoplastic product or a thermoplastic composite, in the form of a sheet and/or a multilayer, of undefined length, comprising means for providing a raw material comprising at least one thermoplastic material, means for conveying said raw material, pre-consolidating means to obtain a pre-consolidated product and consolidating means to obtain a consolidated product, said pre-consolidating means and said consolidating means operating sequentially step by step, characterized in that the means for providing the raw material comprise one or several removable module(s) .
A memory system, comprising: a firmware unit; and a cache module that comprises a cache controller and a cache memory, the cache controller is configured to: receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment (CS) row of the cache memory, and send an ID of the CS row to the firmware unit; and wherein the firmware unit is configured to provide firmware instructions to: in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row. a firmware unit; and a cache module that comprises a cache controller and a cache memory, the cache controller is configured to: receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment (CS) row of the cache memory, and send an ID of the CS row to the firmware unit; and receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment (CS) row of the cache memory, and send an ID of the CS row to the firmware unit; and wherein the firmware unit is configured to provide firmware instructions to: in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row. in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row.