mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the production of skimmed milk protein concentrate, comprising or consisting of the following steps: (i) providing a skimmed milk with a dry matter content of 5 to 15% by weight and particularly 10% by weight; (ii) concentrating the skimmed milk of step (i) to a dry matter content of 45 to 60% by weight; (iii) standardising the skimmed milk concentrate of step (ii) with a milk fraction; and (iv) drying the standardised skimmed milk concentrate of step (iii), obtaining a skimmed milk protein concentrate with a dry matter content of at least 95% by weight, characterized in that a milk permeate, obtained by ultrafiltration of milk, is used for standardisation, which was previously subjected to electrodialysis, wherein the skimmed milk protein concentrate obtained has a protein content of at least 34% by weight, a lactose content of 45 to 60% by weight and an ash content of a maximum of 7.5% by weight. (i) providing a skimmed milk with a dry matter content of 5 to 15% by weight and particularly 10% by weight; (ii) concentrating the skimmed milk of step (i) to a dry matter content of 45 to 60% by weight; (iii) standardising the skimmed milk concentrate of step (ii) with a milk fraction; and (iv) drying the standardised skimmed milk concentrate of step (iii), obtaining a skimmed milk protein concentrate with a dry matter content of at least 95% by weight,
A method for constructing a regular Quasi-Cyclic Low-Density Parity-Check, QC-LDPC, code, comprising: initializing each element of a first row and a first column in a cyclic shift value matrix of the regular QC-LDPC code to 0 ; obtaining K values satisfying a preset condition, wherein a value of K is equal to the number of columns of the cyclic shift value matrix, and the preset condition comprises that one of the K values is 0 and no duplicate number exists in a set consisting of differences each between any two of the K values ; assigning the K values to K elements of a second row in the cyclic shift value matrix, respectively, wherein a first element of the second row is assigned a value of 0 ; searching, based on dimension quantity information of a circulant permutation matrix of the regular QC-LDPC code, for a value satisfying a preset girth condition for each element to be assigned a value, to obtain the cyclic shift value matrix, wherein each element to be assigned a value refers to an element other than elements of the first row, the second row, and the first column in the cyclic shift value matrix ; constructing a check matrix of the regular QC-LDPC code based on the cyclic shift value matrix ; and using the constructed regular QC-LDPC code for error correction by processing data to be transmitted or processing received data. initializing each element of a first row and a first column in a cyclic shift value matrix of the regular QC-LDPC code to 0 ; obtaining K values satisfying a preset condition, wherein a value of K is equal to the number of columns of the cyclic shift value matrix, and the preset condition comprises that one of the K values is 0 and no duplicate number exists in a set consisting of differences each between any two of the K values ; assigning the K values to K elements of a second row in the cyclic shift value matrix, respectively, wherein a first element of the second row is assigned a value of 0 ; searching, based on dimension quantity information of a circulant permutation matrix of the regular QC-LDPC code, for a value satisfying a preset girth condition for each element to be assigned a value, to obtain the cyclic shift value matrix, wherein each element to be assigned a value refers to an element other than elements of the first row, the second row, and the first column in the cyclic shift value matrix ; constructing a check matrix of the regular QC-LDPC code based on the cyclic shift value matrix ; and using the constructed regular QC-LDPC code for error correction by processing data to be transmitted or processing received data.
A power conditioner comprising: a power conversion device ; an electromagnetic contactor connecting an alternating current power source to the power conversion device ; a first resistor connected in series with a coil of the electromagnetic contactor ; a second resistor connected in series and a third resistor connected in parallel with the first resistor ; an energization switch connected in series with the electromagnetic contactor ; a switch connected in parallel with the first resistor ; and a capacitor connected in parallel with the coil of the electromagnetic contactor and the energization switch . a power conversion device ; an electromagnetic contactor connecting an alternating current power source to the power conversion device ; a first resistor connected in series with a coil of the electromagnetic contactor ; a second resistor connected in series and a third resistor connected in parallel with the first resistor ; an energization switch connected in series with the electromagnetic contactor ; a switch connected in parallel with the first resistor ; and a capacitor connected in parallel with the coil of the electromagnetic contactor and the energization switch .
Ski boot comprising an outer shell and an internal comfort liner , said liner having a front opening and a movable tongue which is fixed at the level of its lower end to the forefoot area of the liner thanks to removable attachment means and which ensures the closure of said front opening ; characterized in that the tongue consists of a rigid portion , which is integral with said removable attachment means and a flexible portion , said rigid portions and flexible being independent of each other; the flexible portion of said tongue comprising a rear face intended to come into contact with the foot of a user and a front face ; said front face comprising a first opening allowing said rigid portion to be placed and removed in an interior housing provided between said rear face and said front face , as well as a second opening through which said removable attachment means can pass when the rigid portion is in place in the interior housing .
A method of calibrating a printhead in a thermal inkjet printer , the printhead having ink ejection elements which are energizable by electrical pulses of a given energy with fire pulses of an amplitude (V) and a fire pulse width (fp) to spit ink drops, comprising intiating calibrating the printhead , spitting a number (X) of ink drops at a frequency (Y) by the electrical pulses, reading and storing printhead temperature, varying the fire pulse energy by repeating spitting ink drops and reading and storing printhead temperature, finding minimum temperature from the stored printhead temperatures, deriving an operational fire pulse (fp op ) from a fire pulse (fp on ) that has produced the minimum temperature, an additional over energy (oe), and from parameters related to ink formulation (k 1 ), ink storage age (k 2 ), printhead life (k 3 ), and amount of consumed ink (t), and using the operational fire pulse (fp op ) for printing. spitting a number (X) of ink drops at a frequency (Y) by the electrical pulses, reading and storing printhead temperature, varying the fire pulse energy by repeating spitting ink drops and reading and storing printhead temperature, finding minimum temperature from the stored printhead temperatures, deriving an operational fire pulse (fp op ) from a fire pulse (fp on ) that has produced the minimum temperature, an additional over energy (oe), and from parameters related to ink formulation (k 1 ), ink storage age (k 2 ), printhead life (k 3 ), and amount of consumed ink (t), and using the operational fire pulse (fp op ) for printing.
A method of dynamically controlling at least one of a point-of-coherency or a point-of-serialization for shared data, the method comprising: receiving, by a controller, a request associated with data stored in a memory cache line of a last-level cache, wherein the last-level cache is included in a first cluster of a plurality of clusters included in a non-uniform memory access architecture, wherein the plurality of clusters includes a single owner cluster that is responsible for maintaining an authoritative copy of the data and a single manager cluster that is permanently responsible for assigning the responsibility for maintaining the authoritative copy of the data; determining, by the controller, state information of the first cluster with respect to the data, wherein the state information includes each of a manager status of the first cluster indicating whether the first cluster is the manager cluster for the data, and an ownership status of the first cluster indicating whether the first cluster is the owner cluster for the data; and controlling, by the controller, a change to the ownership status of the first cluster based on the manager status of the first cluster and the ownership status of the first cluster. receiving, by a controller, a request associated with data stored in a memory cache line of a last-level cache, wherein the last-level cache is included in a first cluster of a plurality of clusters included in a non-uniform memory access architecture, wherein the plurality of clusters includes a single owner cluster that is responsible for maintaining an authoritative copy of the data and a single manager cluster that is permanently responsible for assigning the responsibility for maintaining the authoritative copy of the data; determining, by the controller, state information of the first cluster with respect to the data, wherein the state information includes each of a manager status of the first cluster indicating whether the first cluster is the manager cluster for the data, and an ownership status of the first cluster indicating whether the first cluster is the owner cluster for the data; and controlling, by the controller, a change to the ownership status of the first cluster based on the manager status of the first cluster and the ownership status of the first cluster.
A method of generating a representation of a structure , comprising: providing an ad hoc mesh network having at least two nodes (A, B, C, D, E, F, G, H, I, J, K, L, M, N) associated with the structure, and obtaining time of flight data for each node in the network; wherein the generating the representation of the structure is performed by using the time of flight data, the method being characterized in that the obtaining the time of flight data comprises obtaining time of flight data only for a line of sight communication mode. providing an ad hoc mesh network having at least two nodes (A, B, C, D, E, F, G, H, I, J, K, L, M, N) associated with the structure, and obtaining time of flight data for each node in the network; wherein the generating the representation of the structure is performed by using the time of flight data, the method being characterized in that the obtaining the time of flight data comprises obtaining time of flight data only for a line of sight communication mode.
A power electronic component comprising a surface adapted to be attached to a heatsink, the surface forming a bottom surface of the power electronic component, one or more power electronic semiconductor chips mounted on a substrate above the bottom surface, and a housing enclosing the one or more power electronic semiconductor chips, wherein the power electronic component comprises a thermal insulator (21; 31; 41; 51) disposed above the one or more power electronic semiconductor chips, such that the bottom surface and the thermal insulator (21; 31; 41; 51) are on the opposite sides of the one or more power electronic semiconductor chips , characterized in that the power electronic component comprises further a layer of silicone gel on top of the one or more semiconductor chips , the thermal insulator being above the layer of silicone gel. a surface adapted to be attached to a heatsink, the surface forming a bottom surface of the power electronic component, one or more power electronic semiconductor chips mounted on a substrate above the bottom surface, and a housing enclosing the one or more power electronic semiconductor chips, wherein the power electronic component comprises a thermal insulator (21; 31; 41; 51) disposed above the one or more power electronic semiconductor chips, such that the bottom surface and the thermal insulator (21; 31; 41; 51) are on the opposite sides of the one or more power electronic semiconductor chips , characterized in that the power electronic component comprises further a layer of silicone gel on top of the one or more semiconductor chips , the thermal insulator being above the layer of silicone gel.
A computation device, comprising a storage unit , a conversion unit , an operation unit , and a controller unit , wherein: the storage unit comprises a cache and a register : the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit and to transmit a plurality of operation instructions to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to a relationship between different data types in the first input data. the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit and to transmit a plurality of operation instructions to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to a relationship between different data types in the first input data.
An upholstery tool for use with a surface cleaning apparatus, the apparatus including a source of suction, wherein the tool includes: a body including a dirty air inlet in a tool surface which faces a surface to be cleaned in use, wherein the tool surface includes a forward edge , a rear edge , a left edge and a right edge , and the dirty air inlet includes: a first inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; a second inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; and a third inlet section which fluidly connects the first and second inlet sections ; and an outlet for fluid communication with the source of suction fluidly connected to the dirty air inlet , characterised in that the tool surface includes a forward portion positioned forwardly of the dirty air inlet to define a part of the first inlet section and a rearward portion positioned rearwardly of the dirty air inlet to define a part of second inlet section , and at least one or both of the forward and rearward portions are generally curved. a body including a dirty air inlet in a tool surface which faces a surface to be cleaned in use, wherein the tool surface includes a forward edge , a rear edge , a left edge and a right edge , and the dirty air inlet includes: a first inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; a second inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; and a third inlet section which fluidly connects the first and second inlet sections ; and a first inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; a second inlet section which extends across the surface and terminates in peripheral bleed air inlets in the left and right edges ; and a third inlet section which fluidly connects the first and second inlet sections ; and an outlet for fluid communication with the source of suction fluidly connected to the dirty air inlet , characterised in that the tool surface includes a forward portion positioned forwardly of the dirty air inlet to define a part of the first inlet section and a rearward portion positioned rearwardly of the dirty air inlet to define a part of second inlet section , and at least one or both of the forward and rearward portions are generally curved.
A chiller system comprising: a compressor assembly including a motor and an aerodynamic section , said motor including a rotor assembly operatively coupled with a motor shaft and a stator assembly to produce rotation of said motor shaft, said motor shaft and said aerodynamic section being arranged for direct drive of said aerodynamic section ; a condenser section and an evaporator section , each operatively coupled with said aerodynamic section , said condenser section having a higher operating pressure than said evaporator section ; a liquid bypass circuit that cools said stator assembly and said rotor assembly with a liquid refrigerant, said liquid refrigerant being supplied by said condenser section and returned to said evaporator section , said liquid refrigerant being motivated through said liquid bypass circuit by said higher operating pressure of said condenser section relative to said evaporator section ; and a gas bypass circuit that cools said rotor assembly with a gas refrigerant , said gas bypass circuit comprising: an inlet passage ; an outlet passage ; and a longitudinal passage in fluid communication with the inlet passage and passing through and beyond a portion of the motor shaft ; said gas refrigerant being drawn from said evaporator section through said inlet and longitudinal passages , and returned via said outlet passage to said evaporator section by pressure differences caused by said rotation of said motor shaft . a compressor assembly including a motor and an aerodynamic section , said motor including a rotor assembly operatively coupled with a motor shaft and a stator assembly to produce rotation of said motor shaft, said motor shaft and said aerodynamic section being arranged for direct drive of said aerodynamic section ; a condenser section and an evaporator section , each operatively coupled with said aerodynamic section , said condenser section having a higher operating pressure than said evaporator section ; a liquid bypass circuit that cools said stator assembly and said rotor assembly with a liquid refrigerant, said liquid refrigerant being supplied by said condenser section and returned to said evaporator section , said liquid refrigerant being motivated through said liquid bypass circuit by said higher operating pressure of said condenser section relative to said evaporator section ; and a gas bypass circuit that cools said rotor assembly with a gas refrigerant , said gas bypass circuit comprising: an inlet passage ; an outlet passage ; and a longitudinal passage in fluid communication with the inlet passage and passing through and beyond a portion of the motor shaft ; an inlet passage ; an outlet passage ; and a longitudinal passage in fluid communication with the inlet passage and passing through and beyond a portion of the motor shaft ; said gas refrigerant being drawn from said evaporator section through said inlet and longitudinal passages , and returned via said outlet passage to said evaporator section by pressure differences caused by said rotation of said motor shaft .
An isolated monomeric peptide of not more than 60 amino acids comprising the following structure Z 1 -Z 2 -Z 3 -Z 4 -Z 6 wherein Z 1 and Z 4 defines a linear sequence of one, two, or three arginine residues optionally followed by a glycine (G); wherein Z 2 when present is selected from Dpr(Aoa), C, K, Lys(Me), D, E, Dpr(Ser); wherein Z 3 is any one linear amino acid sequence selected from GGQLIGGIYLIPG (SEQ ID NO:313), VITYSIFLIVS (SEQ ID NO:314), TANWARVIS (SEQ ID NO:315), GYLPAVGAPI (SEQ ID NO:316), NIVP(Nle)VVTA (SEQ ID NO:317), VTPADLIGA (SEQ ID NO:318), PRPEGYTLFF (SEQ ID NO:319), LPYPRGYTLFV (SEQ ID NO:320), ETILTPRDV (SEQ ID NO:321), SSTSPVYDL (SEQ ID NO:322), TAYER(Nle)CNIL (SEQ ID NO:323), TVIGAS(Nle)IPLL (SEQ ID NO:324), AAFEE(Nle)(Har)ITS (SEQ ID NO:325), GLEPLVIAGILA (SEQ ID NO:326), TAFLVRNVA (SEQ ID NO:327), TPI(Har)QDWGNRAN (SEQ ID NO:328), TPT(Har)NGWDVKLS (SEQ ID NO:329), LECVYCKQQLL (SEQ ID NO:330), GVYDFAFRDLC (SEQ ID NO:331), GVFDYAFRDIN (SEQ ID NO:332), and VDIRTLEDLL (SEQ ID NO:333); wherein Z 6 is any one linear amino acid sequence selected from EVYDFAFRDLC (SEQ ID NO:334), GFAFRDLCIVY (SEQ ID NO:335), GFAYRDINLAY (SEQ ID NO:336), GTLGIVCPIG (SEQ ID NO:337), GLEPLVIAGILA (SEQ ID NO:338), TPI(Har)QDWENRAN (SEQ ID NO:339), VAFEDL(Har) (Nle)(Nle)SFI (SEQ ID NO:340), RFQTVVQBA (SEQ ID NO:341), GSLVGLLHIVL (SEQ ID NO:342), SIARSVTI(Nle)(Har)ASVVH (SEQ ID NO:343), TPTRQEWDCRIS (SEQ ID NO:344), TPTRQEWDARIS (SEQ ID NO:345), TPI(Har)QEW(Har)SL(Nle)NQEW (SEQ ID NO:346), IGDLIVAQV (SEQ ID NO:347), QYNPVAV(Nle)F (SEQ ID NO:348), GYTLFFTS (SEQ ID NO:349), GYTLFVSD (SEQ ID NO:350), NTL(Nle)TPRDV (SEQ ID NO:351), SSTSPVYNL (SEQ ID NO:352), VITFSIYLIVS (SEQ ID NO:353), GGNVIGGIY(Nle)IPR (SEQ ID NO:354), ANWAKVIL (SEQ ID NO:355), VIRVIAHGLRL (SEQ ID NO:356), and IGDLIVQAV (SEQ ID NO:478); wherein Nle is Norleucine and Har is homoarginine.