mhurhangee/ep-ind-claims huggingface dataset:
A method for combining materials comprising at least one major material and at least one minor material, said at least one major material and at least one minor material combining to make a total, said method comprising the steps of: providing a confluence region; supplying at least one major material into said confluence region; adding at least one minor material to said confluence region in the vicinity of said at least one major material, whereby said at least one major material and said at least one minor material come into contacting relationship in a first proportion and are maintained within said confluence region; and changing the amount of said at least one major material and said at least one minor material added to said confluence region throughout a first period of time, characterized by maintaining said first proportion of said at least one major material to a respective setpoint and said first proportion of said at least one minor material to a respective setpoint within an instantaneous error of not more than ± five percent of full scale flow rate, said first period of time being less than one second, wherein the change in the amount of said at least one major material and said at least one minor material is achieved using a pump control system comprising a motor control loop, said motor control loop comprising at least one of a feedforward loop and/or feedback loop, and wherein said control system does not have zero gain in the position control or velocity control if the appropriate feed forward loops are not utilized. providing a confluence region; supplying at least one major material into said confluence region; adding at least one minor material to said confluence region in the vicinity of said at least one major material, whereby said at least one major material and said at least one minor material come into contacting relationship in a first proportion and are maintained within said confluence region; and changing the amount of said at least one major material and said at least one minor material added to said confluence region throughout a first period of time, characterized by maintaining said first proportion of said at least one major material to a respective setpoint and said first proportion of said at least one minor material to a respective setpoint within an instantaneous error of not more than ± five percent of full scale flow rate, said first period of time being less than one second, wherein the change in the amount of said at least one major material and said at least one minor material is achieved using a pump control system comprising a motor control loop, said motor control loop comprising at least one of a feedforward loop and/or feedback loop, and wherein said control system does not have zero gain in the position control or velocity control if the appropriate feed forward loops are not utilized.
Position measuring device having • a graduation carrier on which a measuring graduation is arranged, • at least one position sensor configured to generate position-dependent measurement signals (M, MP) by scanning the measuring graduation, • a processing unit configured to process the position-dependent measurement signals (M, MP) to form position signals, and • an interface unit for transmitting the position signals to downstream electronics via at least one data transmission channel (44, 46), wherein the position measuring device comprises at least one motion sensor (20, 120, 220) which generates temporally variable measurement signals (M, MP, MX, MY, MZ), characterized in that the position measuring device comprises a signal analysis unit which is supplied with the temporally variable measurement signals (M, MP, MX, MY, MZ), in that the signal analysis unit is configured to evaluate the temporally variable measurement signals (M, MP, MX, MY, MZ) in the frequency domain and this evaluation is dependent on parameters, and in that the interface unit is configured to receive the parameters from the downstream electronics and to transmit result data, which result from the evaluation of the temporally variable measurement signals (M, MP, MX, MY, MZ), to the downstream electronics. • a graduation carrier on which a measuring graduation is arranged, • at least one position sensor configured to generate position-dependent measurement signals (M, MP) by scanning the measuring graduation, • a processing unit configured to process the position-dependent measurement signals (M, MP) to form position signals, and • an interface unit for transmitting the position signals to downstream electronics via at least one data transmission channel (44, 46),
Flavonoid sugar-addition product, which is (-) -catechin-6-C-β3-D-glucopyranoside, (-) -catechin-6-C-8-C-β-D-diglucopyranoside, (-) -epicatechin-6-C-8-C-β-D-diglucopyranoside, (-)-catechin-6-C-β-D-galactopyranoside, (-) -catechin-8-C-β-D-galactopyranoside, (-) -catechin-6-C-8-C-β-D-digalactopyranoside, (-) -epicatechin-6-C-8-C-β-D-di galactopyranoside, or (-) -epicatechin-6-C-β-D galactopyranoside.
A porous granular calcium phosphate material, comprising discrete porous granules each containing crystals of at least one calcium phosphate, wherein (i) at least 90% of said crystals of the granules have a crystal size in the range 10-100 nm, where the crystal size is the longest dimension of the crystal as seen in a cross-sectional SEM, (ii) at least 90% of the pores in the granules have a pore size in the range 10-500 nm, wherein the pore size is the longest dimension of the pore as seen in a cross-sectional SEM, (iii)the average pore size of the pores having pore size in the range 10-500 nm in the granules is in the range 30-90 nm, as measured by mercury intrusion porosimetry, (iv) the total volume porosity of the granules, measured using Archimedes's principle, is at least 60%, and (v) the surface area of the granules, measured by the BET method, is in the range 10-70 m 2 /g, wherein at least 90% of said crystals have at least one dimension of not more than 50 nm as seen in a cross-sectional SEM, and wherein said crystals of said granules are in a substantially unsintered state. (i) at least 90% of said crystals of the granules have a crystal size in the range 10-100 nm, where the crystal size is the longest dimension of the crystal as seen in a cross-sectional SEM, (ii) at least 90% of the pores in the granules have a pore size in the range 10-500 nm, wherein the pore size is the longest dimension of the pore as seen in a cross-sectional SEM, (iii)the average pore size of the pores having pore size in the range 10-500 nm in the granules is in the range 30-90 nm, as measured by mercury intrusion porosimetry, (iv) the total volume porosity of the granules, measured using Archimedes's principle, is at least 60%, and (v) the surface area of the granules, measured by the BET method, is in the range 10-70 m 2 /g,
A computing device comprising: a user interface; a network interface; a non-volatile memory; a processor coupled to the user interface, the network interface, and the non-volatile memory; and a set of instructions (110, 112) stored in the non-volatile memory, wherein the set of instructions (110, 112), when executed by the processor, is to: perform a hardware initialization of the computing device according to firmware settings; establish a local trust domain and a remote trust domain, wherein the local and remote trust domains (202, 204) are separate domains that provide distinct and different access to the firmware settings; use a local-access public key to issue a challenge via the user interface to grant local access to the firmware settings and use a remote-access public key to grant remote access via the network interface to remote access to the firmware settings. a user interface; a network interface; a non-volatile memory; a processor coupled to the user interface, the network interface, and the non-volatile memory; and a set of instructions (110, 112) stored in the non-volatile memory, wherein the set of instructions (110, 112), when executed by the processor, is to: perform a hardware initialization of the computing device according to firmware settings; establish a local trust domain and a remote trust domain, wherein the local and remote trust domains (202, 204) are separate domains that provide distinct and different access to the firmware settings; use a local-access public key to issue a challenge via the user interface to grant local access to the firmware settings and use a remote-access public key to grant remote access via the network interface to remote access to the firmware settings. a set of instructions (110, 112) stored in the non-volatile memory, wherein the set of instructions (110, 112), when executed by the processor, is to: perform a hardware initialization of the computing device according to firmware settings; establish a local trust domain and a remote trust domain, wherein the local and remote trust domains (202, 204) are separate domains that provide distinct and different access to the firmware settings; perform a hardware initialization of the computing device according to firmware settings; establish a local trust domain and a remote trust domain, wherein the local and remote trust domains (202, 204) are separate domains that provide distinct and different access to the firmware settings; use a local-access public key to issue a challenge via the user interface to grant local access to the firmware settings and use a remote-access public key to grant remote access via the network interface to remote access to the firmware settings.
A method for obtaining a triploid interspecific hybrid of meagre and a red drum belonging to the family of Sciaenidae, wherein an induction treatment of the triploidy is performed on the progeny obtained by a meagre belonging to the Argyrosomus species and a Sciaenops ocellatus red drum.
Rotor system for an electrical machine, having: at least one magnetic element, a two-part shaft with a first shaft part and a second shaft part, wherein at least one shaft part has a magnetic element receptacle for receiving the at least one magnetic element and a shaft part receptacle for receiving at least a portion of the other shaft part situated opposite, wherein a connecting rod is guided through the two shaft parts (12, 13) for the purpose of connecting the two shaft parts (12, 13) which can be inserted one into the other, wherein the at least one magnetic element in the magnetic element receptacle is pushed onto the connecting rod or is arranged around it, wherein the two shaft parts (12, 13) and the magnetic element arranged therebetween are braced with respect to each other in the axial direction, wherein the two shaft parts (12, 13) are arranged on the common connecting rod, the longitudinal axis of which simultaneously also forms the axis of rotation of the shaft and its shaft parts (12, 13) and the magnetic element arranged therebetween, wherein the magnetic element has an outwardly protruding pointed or blunt end, wherein the magnetic element receptacle is accordingly formed as a recess which is conical along the rotation axis, wherein an axis of symmetry of the magnetic element is arranged on the axis of rotation. at least one magnetic element, a two-part shaft with a first shaft part and a second shaft part, wherein at least one shaft part has a magnetic element receptacle for receiving the at least one magnetic element and a shaft part receptacle for receiving at least a portion of the other shaft part situated opposite, wherein a connecting rod is guided through the two shaft parts (12, 13) for the purpose of connecting the two shaft parts (12, 13) which can be inserted one into the other, wherein the at least one magnetic element in the magnetic element receptacle is pushed onto the connecting rod or is arranged around it, wherein the two shaft parts (12, 13) and the magnetic element arranged therebetween are braced with respect to each other in the axial direction, wherein the two shaft parts (12, 13) are arranged on the common connecting rod, the longitudinal axis of which simultaneously also forms the axis of rotation of the shaft and its shaft parts (12, 13) and the magnetic element arranged therebetween, wherein the magnetic element has an outwardly protruding pointed or blunt end, wherein the magnetic element receptacle is accordingly formed as a recess which is conical along the rotation axis, wherein an axis of symmetry of the magnetic element is arranged on the axis of rotation.
Strike plate for a lock fitting such as an espagnolette or espagnolette-lock, comprising: - at least one open housing (8; 8A) having a T-shaped cross section for receiving, in at least one locking position, a T-shaped locking roller, said housing (8; 8A) being defined by at least one bottom from which two substantially parallel side walls (13, 14) extend that are each terminated by a hooking return (15, 16); - a cover strip which defines the hooking returns (15, 16) at the end opposite the bottom of the side walls (13, 14); - characterized in that said strike plate comprises means for adjusting the distance which separates the bottom from the hooking returns (15, 16), said adjusting means consisting of the cover strip which is elastically deformable. - at least one open housing (8; 8A) having a T-shaped cross section for receiving, in at least one locking position, a T-shaped locking roller, said housing (8; 8A) being defined by at least one bottom from which two substantially parallel side walls (13, 14) extend that are each terminated by a hooking return (15, 16); - a cover strip which defines the hooking returns (15, 16) at the end opposite the bottom of the side walls (13, 14); - characterized in that said strike plate comprises means for adjusting the distance which separates the bottom from the hooking returns (15, 16), said adjusting means consisting of the cover strip which is elastically deformable.
Method for operating an electric motor for an electric brake device, in particular for an electric parking brake of a vehicle, in particular motor vehicle, wherein the brake device can be moved to a first operating state by operation of the electric motor in a first direction of rotation and to a second operating state by operation of the electric motor in a second direction of rotation which is different from the first direction of rotation, characterized in that the method comprises the following steps: determination, in particular by means of an apparatus, of a first variable which characterizes an internal resistance of the electric motor, comparison, in particular by means of the device, of the first variable with a specifiable first threshold value, actuation of the electric motor, in particular by means of the apparatus, for a specifiable first actuation period in the sense of that direction of rotation which corresponds to a current operating state of the brake device when the comparison shows that the first variable exceeds the first threshold value.
A sensor assembly (105, 155, 205, 305, 1101) for a cooking chamber of a microwave oven, the sensor assembly comprising: at least one energy consuming part comprising at least one sensor (108, 208, 308) comprising a first sensor configured to measure a first property of a first item in the cooking chamber; an energy harvesting part configured to harvest energy from microwave radiation within the cooking chamber, the energy harvesting part comprising a microwave antenna (102, 202, 302) having a predetermined tuning frequency for generating an RF antenna signal in response to microwave radiation at a predetermined excitation frequency; and an energy supply part configured to supply energy from the energy harvesting part to the at least one energy consuming part, the energy supply part comprising a dc power supply circuit (106, 206, 306) coupled to the RF antenna signal, the dc power supply circuit (106, 206, 306) being configured to produce a power supply voltage by rectifying and extracting energy from the RF antenna signal; characterised in that the sensor assembly (105, 155, 205, 305, 1101) being configured to: obtain first information indicative of availability of microwave radiation at the energy harvesting part; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information. at least one energy consuming part comprising at least one sensor (108, 208, 308) comprising a first sensor configured to measure a first property of a first item in the cooking chamber; an energy harvesting part configured to harvest energy from microwave radiation within the cooking chamber, the energy harvesting part comprising a microwave antenna (102, 202, 302) having a predetermined tuning frequency for generating an RF antenna signal in response to microwave radiation at a predetermined excitation frequency; and an energy supply part configured to supply energy from the energy harvesting part to the at least one energy consuming part, the energy supply part comprising a dc power supply circuit (106, 206, 306) coupled to the RF antenna signal, the dc power supply circuit (106, 206, 306) being configured to produce a power supply voltage by rectifying and extracting energy from the RF antenna signal; characterised in that the sensor assembly (105, 155, 205, 305, 1101) being configured to: obtain first information indicative of availability of microwave radiation at the energy harvesting part; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information. obtain first information indicative of availability of microwave radiation at the energy harvesting part; and control at least one energy consuming operation of at least one of the at least one energy consuming part in response to the first information.
A method of connecting together two unit elements (4, 4') of a fluid transport pipe, each unit pipe element being made of metal alloy and being covered in an outer insulating coating (6, 6') made of a thermoplastic material, with the exception of an end portion that does not have an outer insulating coating, the method comprising: a step of welding together two unit pipe elements abutting at their end portions not having any outer insulating coating so as to form an annular cut-back; a step of positioning an annular sleeve around the cut-back and in part around the outer insulating coatings of the two unit pipe elements, the sleeve being made of a thermoplastic material; a step of fastening the sleeve in sealed manner by weld bonding on the outer insulating coatings of the two unit pipe elements; and a step of applying an external pressure on the sleeve to enable it to be deformed plastically and match the shape of the respective end portions of the two unit pipe elements. a step of welding together two unit pipe elements abutting at their end portions not having any outer insulating coating so as to form an annular cut-back; a step of positioning an annular sleeve around the cut-back and in part around the outer insulating coatings of the two unit pipe elements, the sleeve being made of a thermoplastic material; a step of fastening the sleeve in sealed manner by weld bonding on the outer insulating coatings of the two unit pipe elements; and a step of applying an external pressure on the sleeve to enable it to be deformed plastically and match the shape of the respective end portions of the two unit pipe elements.
A method for controlling one or more modules connected to an image signal processing apparatus, the method comprising: recognizing connection of the connected modules to the image signal processing apparatus; displaying a list of the connected modules, wherein the list of the connected modules includes items regarding a newly recognized module and previously recognized modules, an item regarding the newly recognized module being inverted to be easily recognized by a user; inputting a selection of the item regarding the newly recognized module from the user; downloading the driving program stored in a memory of the newly recognized module from the memory of the newly recognized module; executing (S105, S107) the downloaded driving program to receive data required for generating and executing a control screen from the newly recognized module; displaying (S106, S108) the control screen for controlling the newly recognized module; and controlling the newly recognized module using the control screen. recognizing connection of the connected modules to the image signal processing apparatus; displaying a list of the connected modules, wherein the list of the connected modules includes items regarding a newly recognized module and previously recognized modules, an item regarding the newly recognized module being inverted to be easily recognized by a user; inputting a selection of the item regarding the newly recognized module from the user; downloading the driving program stored in a memory of the newly recognized module from the memory of the newly recognized module; executing (S105, S107) the downloaded driving program to receive data required for generating and executing a control screen from the newly recognized module; displaying (S106, S108) the control screen for controlling the newly recognized module; and controlling the newly recognized module using the control screen.
A fluid flow sensing system (300; 500; 602; 606; 700) comprising: a housing having a chamber that is sized and dimensioned to allow fluid to pass therethrough; a flap provided within said chamber, wherein said flap comprises a polymer film, and wherein the fluid displaces said flap when the fluid passes thereover; a piezoresistive sensor bonded to said polymer film for generating an output signal when said flap is displaced, said sensor configured to sense a displacement of said flap in at least two directions, wherein said flap has a non-linear response, wherein said sensor responds to an input rectangular flow pulse applied to displace said flap in a first, positive direction by providing an exponential decay response function, and said sensor responds to an input rectangular flow pulse applied to displace said flap in a second, negative direction by providing a mesa response function, said mesa response function having fewer non-linear components than said exponential decay response function; a determining unit for receiving said output signal of said sensor and in response thereto, determining flow rate data associated with the fluid; and a correction unit for receiving said flow rate data and applying a correction function to said flow rate data to correct said exponential decay response function. a housing having a chamber that is sized and dimensioned to allow fluid to pass therethrough; a flap provided within said chamber, wherein said flap comprises a polymer film, and wherein the fluid displaces said flap when the fluid passes thereover; a piezoresistive sensor bonded to said polymer film for generating an output signal when said flap is displaced, said sensor configured to sense a displacement of said flap in at least two directions, wherein said flap has a non-linear response, wherein said sensor responds to an input rectangular flow pulse applied to displace said flap in a first, positive direction by providing an exponential decay response function, and said sensor responds to an input rectangular flow pulse applied to displace said flap in a second, negative direction by providing a mesa response function, said mesa response function having fewer non-linear components than said exponential decay response function; a determining unit for receiving said output signal of said sensor and in response thereto, determining flow rate data associated with the fluid; and a correction unit for receiving said flow rate data and applying a correction function to said flow rate data to correct said exponential decay response function.