mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method, comprising: determining a first function (A) of a high level programming language description and a second function (B) contained within a control flow construct of the high level programming description; determining that the second function (B) is a data consuming function of the first function (A); determining that a port type for exchanging data between the first function and the second function is a non-self-synchronized port type; generating, in response to the determining that the port type is a non-self-synchronized port type, within a circuit design , a port comprising a local memory ; wherein the port couples a first circuit block implementation of the first function (A) to a second circuit block implementation of the second function (B) within the circuit design ; and generating, in response to the determining that the port type is the non-self-synchronized port type and in response to the determining that the second function is contained within the control flow construct, within the circuit design , control circuitry controlling operation of the second circuit block by performing handshake signaling between the first circuit block and the control circuitry and between the second circuit block and the control circuitry to effectuate a flow of data between the first circuit block and the second circuit block via the local memory of the port in accordance with the non-self-synchronized port type, wherein the control circuitry implements the control flow construct controlling the second circuit block implementation. determining a first function (A) of a high level programming language description and a second function (B) contained within a control flow construct of the high level programming description; determining that the second function (B) is a data consuming function of the first function (A); determining that a port type for exchanging data between the first function and the second function is a non-self-synchronized port type; generating, in response to the determining that the port type is a non-self-synchronized port type, within a circuit design , a port comprising a local memory ; wherein the port couples a first circuit block implementation of the first function (A) to a second circuit block implementation of the second function (B) within the circuit design ; and generating, in response to the determining that the port type is the non-self-synchronized port type and in response to the determining that the second function is contained within the control flow construct, within the circuit design , control circuitry controlling operation of the second circuit block by performing handshake signaling between the first circuit block and the control circuitry and between the second circuit block and the control circuitry to effectuate a flow of data between the first circuit block and the second circuit block via the local memory of the port in accordance with the non-self-synchronized port type, wherein the control circuitry implements the control flow construct controlling the second circuit block implementation.
An apparatus comprising: at least one image sensor , and a light guide element comprising a plurality of input diffraction gratings configured to couple a plurality of incident beams of light into the light guide element and at least one output diffraction grating configured to couple the plurality of beams of light out of the light guide element to the at least one image sensor to enable a plurality of images to be captured, wherein the input diffraction gratings and the at least one output diffraction gratings have the same periodic spacing.
A terminal comprising a terminal container and configured to be accommodated in a terminal cavity of a connector housing comprising: elastic contact pieces configured to come into elastic contact with a counterpart terminal in a terminal container , each of the elastic contact pieces including a bent portion bent and extending from a portion of a side wall of the terminal container in the terminal container , each of the elastic contact pieces further includes a contact portion which is bent and extends from a front end of a clamping portion and is bent in a direction of elastic contact with the counterpart terminal, and then extends in a direction of insertion/extraction of the counterpart terminal to the terminal container , characterized in that the clamping portion extends from a front end of the bent portion in the terminal container along an extending direction of the side wall , and gaps larger than a bending range of the elastic contact piece clamping the counterpart terminal are formed between the clamping portions and inner wall portions of the terminal cavity . elastic contact pieces configured to come into elastic contact with a counterpart terminal in a terminal container , each of the elastic contact pieces including a bent portion bent and extending from a portion of a side wall of the terminal container in the terminal container , each of the elastic contact pieces further includes a contact portion which is bent and extends from a front end of a clamping portion and is bent in a direction of elastic contact with the counterpart terminal, and then extends in a direction of insertion/extraction of the counterpart terminal to the terminal container , characterized in that the clamping portion extends from a front end of the bent portion in the terminal container along an extending direction of the side wall , and gaps larger than a bending range of the elastic contact piece clamping the counterpart terminal are formed between the clamping portions and inner wall portions of the terminal cavity .
A copper halide semiconductor based electronic device , comprising: a substrate ; a copper halide channel layer formed on the substrate ; an insulating layer formed on the copper halide channel layer ; a gate electrode formed on the insulating layer ; a first n + copper halide layer disposed at a first side of the gate electrode , the first n + copper halide layer comprising n-type impurities; a drain electrode formed on the first n + copper halide layer ; a second n + copper halide layer disposed at a second side of the gate electrode , which is opposite to the first side, the second n + copper halide layer comprising n-type impurities; and a source electrode formed on the second n + copper halide layer , characterized by the fact that the first n + copper halide layer and the second n + copper halide layer are formed on the copper halide channel layer ; the copper halide channel layer comprises CuICl or CuBrCl and a barrier layer is between the channel layer and the substrate , wherein the barrier layer comprises CuCl. a substrate ; a copper halide channel layer formed on the substrate ; an insulating layer formed on the copper halide channel layer ; a gate electrode formed on the insulating layer ; a first n + copper halide layer disposed at a first side of the gate electrode , the first n + copper halide layer comprising n-type impurities; a drain electrode formed on the first n + copper halide layer ; a second n + copper halide layer disposed at a second side of the gate electrode , which is opposite to the first side, the second n + copper halide layer comprising n-type impurities; and a source electrode formed on the second n + copper halide layer , characterized by the fact that the first n + copper halide layer and the second n + copper halide layer are formed on the copper halide channel layer ; the copper halide channel layer comprises CuICl or CuBrCl and a barrier layer is between the channel layer and the substrate , wherein the barrier layer comprises CuCl.
Method for producing an industrial electrical cabinet depending on a list of electrical components (11a-11d), said method comprising in order the following steps implemented by computer: - extraction of a representation and technical information (12a-12d) associated with each electrical component (11a-11d), said technical information (12a-12d) integrating at least one classification of said electrical component (11a-11d), a size of said electrical component (11a-11d) and fixing information describing means for fixing said electrical component (11a-11d); - calculation of a total occupancy area (Sot) of said electrical components (11a-11d) as a function of said size of each electrical component (11a-11d) ; - definition of a first frame as a function of said total occupancy surface (Sot); - grouping of said electrical components (11a-11d) according to said classification and said fixing information of each electrical component (11a-11d); - calculation of a first installation wherein said grouped electrical components (11a-11d) are juxtaposed and said remaining electrical components are iteratively arranged in the free spaces of the first frame ; - displaying the first installation with means for modifying the installation of each electrical component (11a-11d) and/or the dimensions of the first frame ; et - for each modification carried out, calculating and displaying in dynamic mode, of a new installation (10b-10d) and/or a new frame depending on the constraints applied by the user; said method further comprising a step of production of an industrial electrical cabinet depending on said resulting obtained installation (10a-10d) and/or said new frame . - extraction of a representation and technical information (12a-12d) associated with each electrical component (11a-11d), said technical information (12a-12d) integrating at least one classification of said electrical component (11a-11d), a size of said electrical component (11a-11d) and fixing information describing means for fixing said electrical component (11a-11d); - calculation of a total occupancy area (Sot) of said electrical components (11a-11d) as a function of said size of each electrical component (11a-11d) ; - definition of a first frame as a function of said total occupancy surface (Sot); - grouping of said electrical components (11a-11d) according to said classification and said fixing information of each electrical component (11a-11d); - calculation of a first installation wherein said grouped electrical components (11a-11d) are juxtaposed and said remaining electrical components are iteratively arranged in the free spaces of the first frame ; - displaying the first installation with means for modifying the installation of each electrical component (11a-11d) and/or the dimensions of the first frame ; et - for each modification carried out, calculating and displaying in dynamic mode, of a new installation (10b-10d) and/or a new frame depending on the constraints applied by the user;
A method for the production of fertiliser granules, characterised - in that a suspension is produced from at least one ash comprising at least one phosphate-containing secondary raw material and at least one mineral acid, the ash comprising the at least one phosphate-containing secondary raw material being an ash from the incineration of sewage sludge and/or animal droppings and/or animal meal and/or animal residues and/or animal bodies and/or liquid manure and/or fermentation residues, - in the suspension, during a reaction between the ash comprising at least one phosphate-containing secondary raw material and the mineral acid, the hardly soluble phosphates of the ash comprising at least one phosphate-containing secondary raw material are at least partially dissolved and/or at least partially converted into a water- and/or neutral ammonium citrate-soluble phosphate phase and - this suspension is then fed to a granulation, wherein the granulation which takes place in a fluidisation apparatus is a spray agglomeration and/or a spray granulation and wherein the fertiliser granules are formed so that the P 2 O 5 content contained in the fertiliser granules is higher than 75 % w/w neutral ammonium citrate soluble. - in that a suspension is produced from at least one ash comprising at least one phosphate-containing secondary raw material and at least one mineral acid, the ash comprising the at least one phosphate-containing secondary raw material being an ash from the incineration of sewage sludge and/or animal droppings and/or animal meal and/or animal residues and/or animal bodies and/or liquid manure and/or fermentation residues, - in the suspension, during a reaction between the ash comprising at least one phosphate-containing secondary raw material and the mineral acid, the hardly soluble phosphates of the ash comprising at least one phosphate-containing secondary raw material are at least partially dissolved and/or at least partially converted into a water- and/or neutral ammonium citrate-soluble phosphate phase and - this suspension is then fed to a granulation, wherein the granulation which takes place in a fluidisation apparatus is a spray agglomeration and/or a spray granulation and wherein the fertiliser granules are formed so that the P 2 O 5 content contained in the fertiliser granules is higher than 75 % w/w neutral ammonium citrate soluble.
Method for moving an elevator car of an elevator for evacuating passengers from the elevator car of the elevator in the event of a power failure, in which method a brake blocks a vertical movement of the elevator car , wherein the method comprises the following steps: applying an electrical pulse or a plurality of electrical pulses to the brake of the elevator car to release the brake and unblock the vertical movement of the elevator car , wherein the brake is released for as long as the particular electric pulse is applied to the brake ; determining a covered height which the elevator car has covered during the application of the particular electrical pulse; comparing the determined covered height with a predetermined distance (d max ); and terminating the application of the particular electrical pulse to the brake when the determined covered height is equal to the predetermined distance (d max ) or greater than the predetermined distance (d max ). applying an electrical pulse or a plurality of electrical pulses to the brake of the elevator car to release the brake and unblock the vertical movement of the elevator car , wherein the brake is released for as long as the particular electric pulse is applied to the brake ; determining a covered height which the elevator car has covered during the application of the particular electrical pulse; comparing the determined covered height with a predetermined distance (d max ); and terminating the application of the particular electrical pulse to the brake when the determined covered height is equal to the predetermined distance (d max ) or greater than the predetermined distance (d max ).
A nuclear power plant having a primary coolant circuit , a steam-water circuit separated from the primary coolant circuit , and a steam generator connected to the primary coolant circuit and the steam-water circuit for the transfer of heat from the primary coolant circuit into the steam-water circuit , wherein the steam-water circuit has at least one metering point for the introduction of a reducing agent into the steam-water circuit , wherein the reducing agent is an organic compound consisting of carbon, hydrogen and oxygen, characterized in that the steam-water circuit has means for controlling the concentration of the reducing agent, by means of which a predetermined oxygen concentration is set in the steam-water circuit , while reducing conditions prevail within the steam generator .
A method of erecting a grid for a suspended ceiling comprising suspending a plurality of straight elongated malleable metal hangers in spaced parallel relation, the hangers being provided with regularly spaced notches on lower edges thereof, each notch being configured with an interior enlarged relative to a notch opening at the lower edge whereby the notch is adapted to receive and vertically support a bulb of a grid runner , the notches of the plurality of hangers being aligned in rows perpendicular to the hangers , the hangers being provided with a bendable tab associated with each notch for widening the opening when the tab is out of a plane of a lower portion of the hanger, wherein the method comprises passing a grid runner bulb into successive notches of successive hangers by raising the bulb through an opening resulting from the respective tab being previously bent out of the plane of the lower portion of the hanger, and after the grid runners are received in a plurality of notches , manually bending the tabs back into the plane of the lower portion of the hangers, the tabs being precision machine bent to said angle during manufacture of said hanger, so as to require the grid runners to be tilted for passage into the notches .
An alkaline battery comprising: a tubular battery case ; a positive electrode filled in the battery case , and including a stack of n pieces of hollow tubular pellets; a negative electrode disposed in hollow portions of the pellets; a separator disposed between the positive electrode and the negative electrode ; and an alkaline electrolytic solution, wherein the battery case includes a body portion having a thickness of 0.15 mm or less, and of 0.08 mm or more, the positive electrode contains manganese dioxide and a conductive agent, n is an integer of 3 or more, and 8 or less, and a first proportion is lower than a second proportion, where the first proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet positioned in a middle portion in a height direction of the stack, and the second proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet positioned in end portions in the height direction of the stack, wherein a difference between the first proportion and the second proportion is 1% by mass or more. a tubular battery case ; a positive electrode filled in the battery case , and including a stack of n pieces of hollow tubular pellets; a negative electrode disposed in hollow portions of the pellets; a separator disposed between the positive electrode and the negative electrode ; and an alkaline electrolytic solution, wherein the battery case includes a body portion having a thickness of 0.15 mm or less, and of 0.08 mm or more, the positive electrode contains manganese dioxide and a conductive agent, n is an integer of 3 or more, and 8 or less, and a first proportion is lower than a second proportion, where the first proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet positioned in a middle portion in a height direction of the stack, and the second proportion is a proportion of a mass of the conductive agent in a total mass of the manganese dioxide and the conductive agent in at least one pellet positioned in end portions in the height direction of the stack,
A method for wireless communication in a user equipment, UE, the method comprising: applying an encryption function to an initial data packet and a subsequent data packet using at least one security key to generate an initial security-protected data packet and a subsequent security-protected data packet; transmitting , when a radio connection between the UE and a radio access network, RAN , is inactive, the initial security-protected data packet to the RAN; receiving, subsequent to transmitting the initial security-protected data packet and while the radio connection remains inactive, downlink control information, DCI, from the RAN; and transmitting , subsequent to transmitting the initial security-protected data packet and while the radio connection remains inactive, the subsequent security-protected data packet to the RAN using the DCI. applying an encryption function to an initial data packet and a subsequent data packet using at least one security key to generate an initial security-protected data packet and a subsequent security-protected data packet; transmitting , when a radio connection between the UE and a radio access network, RAN , is inactive, the initial security-protected data packet to the RAN; receiving, subsequent to transmitting the initial security-protected data packet and while the radio connection remains inactive, downlink control information, DCI, from the RAN; and transmitting , subsequent to transmitting the initial security-protected data packet and while the radio connection remains inactive, the subsequent security-protected data packet to the RAN using the DCI.
A method, performed by a mobile device , comprising a step of: generating a message comprising mobile device-specific information, the method characterized in that : the mobile device-specific information is related to operation of a state transition timer for the mobile device , wherein the mobile device-specific information comprises an indication of the anticipated mobility status of the mobile device, wherein the anticipated mobility status is based on at least one of: a serving cell identity, a cell global identity, a physical cell identity; and in that the method further comprises a step of: sending the generated message towards an access point associated with a wireless communication network, wherein the mobile device-specific information causes the access point to adjust the state transition timer for the mobile device , wherein an expiry of the state transition timer causes the mobile device to transition from one state to another state.
A method of modifying a targeted site in a double stranded DNA of a gram-positive bacterium, comprising a step of contacting a complex wherein a nucleic acid sequence-recognizing module that specifically binds to a target nucleotide sequence in a given double stranded DNA and Petromyzon marinus cytidine deaminase 1 (PmCDA1) are bonded, with said double stranded DNA, to convert one or more nucleotides in the targeted site to other one or more nucleotides, without cleaving at least one strand of said double stranded DNA in the target site, wherein the double stranded DNA is contacted with the complex by introducing the nucleic acid encoding the complex into the gram-positive bacterium, wherein the gram-positive bacterium is a microorganism belonging to the genus Clostridium, the genus Brevibacillus or the genus Corynebacterium, and wherein the nucleic acid sequence-recognizing module is a CRISPR-Cas system and wherein the Cas is a mutant Cas in which both DNA cleavage abilities of Cas are inactivated. wherein the gram-positive bacterium is a microorganism belonging to the genus Clostridium, the genus Brevibacillus or the genus Corynebacterium, and wherein the nucleic acid sequence-recognizing module is a CRISPR-Cas system and wherein the Cas is a mutant Cas in which both DNA cleavage abilities of Cas are inactivated.
Composite material , comprising at least one photoluminescent material which is embedded as a light source in a transparent matrix , wherein a refractive index (n P ) of the at least one photoluminescent material and a refractive index (n M ) of the matrix differ by at most ±0.2, and wherein the composite material is configured to be transparent and colorless in the visible region of the spectrum.