mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing treatment parameters for a dialysis treatment comprising the following steps: providing a predetermined machine-related dataset of machine-related treatment parameters, which are predetermined independently of the treatment of a specific patient , providing a patient-related dataset of patient-related treatment parameters of a patient to be treated, which treatment parameters are predetermined independently of a dialysis machine or of a device type designated for the treatment, selection of a machine-related dataset for a specific dialysis treatment of a patient , and using the machine-related dataset and the patient-related dataset to generate a treatment dataset for determining treatment parameters for the dialysis treatment to be carried out, further comprising: providing a plurality of machine-related datasets as a function of a respective machine type for a plurality of types of dialysis machines, determining the machine type of a dialysis machine designated for a specific treatment, and selection of the machine-related dataset as a function of the specific machine type, and wherein the treatment dataset comprises a control dataset for controlling a dialysis machine during the dialysis treatment. providing a predetermined machine-related dataset of machine-related treatment parameters, which are predetermined independently of the treatment of a specific patient , providing a patient-related dataset of patient-related treatment parameters of a patient to be treated, which treatment parameters are predetermined independently of a dialysis machine or of a device type designated for the treatment, selection of a machine-related dataset for a specific dialysis treatment of a patient , and using the machine-related dataset and the patient-related dataset to generate a treatment dataset for determining treatment parameters for the dialysis treatment to be carried out, further comprising: providing a plurality of machine-related datasets as a function of a respective machine type for a plurality of types of dialysis machines, determining the machine type of a dialysis machine designated for a specific treatment, and selection of the machine-related dataset as a function of the specific machine type, and wherein the treatment dataset comprises a control dataset for controlling a dialysis machine during the dialysis treatment.
A vehicle lamp , comprising: a light source ; an optical system that repeats a periodic motion and thus scans an exit beam from the light source ; and a controlling unit for controlling the on/off of the light source to form a predetermined light distribution pattern, wherein the controlling unit is arranged to set a brightness of the light source to no higher than a predetermined value in a partial time segment within one scan period and thus forms a non-illumination region in a region corresponding to the time segment, and wherein the controlling unit , when the entirety of the at least one non-illumination region is to be changed over to an illumination region, is arranged to start changing the non-illumination region over to the illumination region from one end and changes gradually toward another end of the non-illumination region in a widthwise direction of the vehicle, characterized in that in a case where the non-illumination region includes a center portion of the light distribution pattern, the controlling unit is arranged to change the non-illumination region over to the illumination region at one rate up to the center portion and at a different rate past the center portion. a light source ; an optical system that repeats a periodic motion and thus scans an exit beam from the light source ; and a controlling unit for controlling the on/off of the light source to form a predetermined light distribution pattern, wherein the controlling unit is arranged to set a brightness of the light source to no higher than a predetermined value in a partial time segment within one scan period and thus forms a non-illumination region in a region corresponding to the time segment, and wherein the controlling unit , when the entirety of the at least one non-illumination region is to be changed over to an illumination region, is arranged to start changing the non-illumination region over to the illumination region from one end and changes gradually toward another end of the non-illumination region in a widthwise direction of the vehicle, characterized in that in a case where the non-illumination region includes a center portion of the light distribution pattern, the controlling unit is arranged to change the non-illumination region over to the illumination region at one rate up to the center portion and at a different rate past the center portion.
Electronically commutated electric motor with a stator, a rotor rotatably mounted relative to said stator, and at least one sensor for scanning a magnetic field that co-rotates with said rotor, where said stator comprises a stator winding and a magnetically soft stator core , where said rotor comprises several permanent magnets arranged distributed in the circumferential direction of said rotor as well as a first magnetically soft rotor core for said permanent magnets, and where said permanent magnets , together with said first magnetically soft rotor core, generate a rotor magnetic field which, for operating said electric motor, interacts with the stator magnetic field of said stator generated by said stator winding and said stator core, wherein said rotor further comprises a second magnetically soft rotor core which adjoins said first magnetically soft rotor core in the axial direction of said rotor, where a non-magnetic separator element is arranged in the axial direction between said first magnetically soft rotor core and said second magnetically soft rotor core, where said permanent magnets extend in the axial direction over said first magnetically soft rotor core , said non-magnetic separator element and said second magnetically soft rotor core , and where the magnetic field scanned by said sensor is a control magnetic field generated by said permanent magnets together with said second magnetically soft rotor core, characterized in that the thickness of the non-magnetic separator element measured in the axial direction is at least 10% of the outer diameter of the rotor , wherein said at least one sensor for scanning the control magnetic field is a Hall sensor, and wherein said Hall sensor is arranged on a side of a printed circuit board facing said second magnetically soft rotor core in the axial direction.
A planting method for morels, comprising the following steps: step 1, preparing spawns, comprising 1.1 filling composts and the soil layer an entire mushroom strain bag wherein the composts are compressed and the soil layer is 1-2 cm thick, covering a layer of loose soil on the composts, sealing the mushroom strain bag for sterilization and sterilizing the mushrooms strain bag; 1.2 after sterilization, opening the mushroom strain bag for inoculation, inoculating the mushroom strain bag, the mushroom strain bag is sealed and going to the next step until morel mycelia grow down to at least 2-3 cm of the soil layer; step 2, flipping the spawns, comprising: 2.1 cutting off the mushroom strain bag, flipping on the ground directly, and compressing; step 3, managing the humidity, wherein surface soil moisture is required at 70-85%; step 4, fruiting for harvesting. step 1, preparing spawns, comprising 1.1 filling composts and the soil layer an entire mushroom strain bag wherein the composts are compressed and the soil layer is 1-2 cm thick, covering a layer of loose soil on the composts, sealing the mushroom strain bag for sterilization and sterilizing the mushrooms strain bag; 1.2 after sterilization, opening the mushroom strain bag for inoculation, inoculating the mushroom strain bag, the mushroom strain bag is sealed and going to the next step until morel mycelia grow down to at least 2-3 cm of the soil layer; 1.1 filling composts and the soil layer an entire mushroom strain bag wherein the composts are compressed and the soil layer is 1-2 cm thick, covering a layer of loose soil on the composts, sealing the mushroom strain bag for sterilization and sterilizing the mushrooms strain bag; 1.2 after sterilization, opening the mushroom strain bag for inoculation, inoculating the mushroom strain bag, the mushroom strain bag is sealed and going to the next step until morel mycelia grow down to at least 2-3 cm of the soil layer; step 2, flipping the spawns, comprising: 2.1 cutting off the mushroom strain bag, flipping on the ground directly, and compressing; step 3, managing the humidity, wherein surface soil moisture is required at 70-85%; step 4, fruiting for harvesting.
A method for soil mapping of a managed agricultural area, wherein initially, an initial state for a soil property is determined and then, starting from the initial state , an actual state of the soil property is calculated with the aid of an effect of a management action for the area, characterized in that the initial state is determined and the actual state is calculated in a plurality of vertically superimposed horizontal zones of the area.
A biometric feature based security verification method performed by a client device in an identity authentication system, wherein the identity authentication system further comprises a server, and wherein the client device saves an enable record comprising a biometric feature template ID which is used for biometric feature verification and is obtained in a process of enabling the biometric feature verification; the security verification method comprising: sending an authentication request to the server ; receiving, from the server, an authentication request reply message comprising a user ID ; receiving a biometric feature input by a user ; obtaining a biometric feature template ID corresponding to the biometric feature, comprising identifying, from stored biometric feature templates, a biometric feature template that corresponds to the received biometric feature input by the user and obtaining an ID for the identified biometric feature template; searching for a corresponding saved enable record according to the user ID; comparing the obtained biometric feature template ID with the biometric feature template ID in the corresponding saved enable record; generating an authentication response message comprising the obtained biometric feature template ID and user ID if the obtained biometric feature template ID and biometric feature template ID in the corresponding saved enable record are consistent ; and sending the authentication response message to the server , so that the server receives the authentication response message, obtains the user ID therein, searches for a user record according to the user ID and performs verification. sending an authentication request to the server ; receiving, from the server, an authentication request reply message comprising a user ID ; receiving a biometric feature input by a user ; obtaining a biometric feature template ID corresponding to the biometric feature, comprising identifying, from stored biometric feature templates, a biometric feature template that corresponds to the received biometric feature input by the user and obtaining an ID for the identified biometric feature template; searching for a corresponding saved enable record according to the user ID; comparing the obtained biometric feature template ID with the biometric feature template ID in the corresponding saved enable record; generating an authentication response message comprising the obtained biometric feature template ID and user ID if the obtained biometric feature template ID and biometric feature template ID in the corresponding saved enable record are consistent ; and sending the authentication response message to the server , so that the server receives the authentication response message, obtains the user ID therein, searches for a user record according to the user ID and performs verification.
An anchoring device for doors or windows, in particular intended to connect at least two members of said door or window, comprising a main body extending mainly along an axis X to define a connection between a first member and a second member ; wherein said main body comprises: - a shaped portion configured to be associated with said first member and; - an expandable portion defining a housing volume and configured to be mechanically connected to said second member ; and wherein said anchoring device comprises expansion means which is mechanically associable with said main body and configurable between a first position in which said expansion means is decoupled from said expandable portion , and a second position in which said expansion means is inserted in said housing volume of said expandable portion so as to achieve an expansion of said expandable portion and mechanically constrain said main body to said second member ; characterised in that said expandable portion extends along an axis Y substantially orthogonal to said axis X, between a first end and a second end , and in that said housing volume of said expandable portion extends substantially along said axis Y and passes through said expandable portion and said shaped portion of said main body . wherein said main body comprises: - a shaped portion configured to be associated with said first member and; - an expandable portion defining a housing volume and configured to be mechanically connected to said second member ; - a shaped portion configured to be associated with said first member and; - an expandable portion defining a housing volume and configured to be mechanically connected to said second member ; and wherein said anchoring device comprises expansion means which is mechanically associable with said main body and configurable between a first position in which said expansion means is decoupled from said expandable portion , and a second position in which said expansion means is inserted in said housing volume of said expandable portion so as to achieve an expansion of said expandable portion and mechanically constrain said main body to said second member ; characterised in that said expandable portion extends along an axis Y substantially orthogonal to said axis X, between a first end and a second end , and in that said housing volume of said expandable portion extends substantially along said axis Y and passes through said expandable portion and said shaped portion of said main body .
A nuclear fuel assembly flux thimble insert comprising: an elongated tubular housing having an axis along its elongated dimension, the elongated tubular housing being closed at a forward end and capped at a rearward end to form a target specimen chamber there between within an interior of the elongated tubular housing , the elongated tubular housing being sized to slide within an instrument thimble of a nuclear fuel assembly, with the rearward end structured to be driven by a drive cable of an existing moveable in-core detector system; and an elongated target specimen captured between a forward and a rear axial position plug wherein the axial position plugs are structured to seat against an interior wall of the elongated tubular housing to hold the target specimen at a preselected axial position within the interior of the elongated tubular housing. an elongated tubular housing having an axis along its elongated dimension, the elongated tubular housing being closed at a forward end and capped at a rearward end to form a target specimen chamber there between within an interior of the elongated tubular housing , the elongated tubular housing being sized to slide within an instrument thimble of a nuclear fuel assembly, with the rearward end structured to be driven by a drive cable of an existing moveable in-core detector system; and an elongated target specimen captured between a forward and a rear axial position plug wherein the axial position plugs are structured to seat against an interior wall of the elongated tubular housing to hold the target specimen at a preselected axial position within the interior of the elongated tubular housing.
A device for producing a High Modulus Low Shrinkage (HMLS) yarn from a polyester melt, comprising a spinning apparatus having a spinneret for extruding and a quench box for cooling a plurality of filament strands , a device for applying a spinning preparation and for combining the filament strands to form a thread , a winding device and a drafting zone for drawing the thread that is provided between the spinning apparatus and the winding device , wherein the drafting zone is formed by a plurality of successive drafting roller pairs and the first drafting roller pairs are provided with a heating apparatus and the last drafting roller pair is provided with a cooling apparatus , wherein a surface temperature of the roller, equipped with the cooling apparatus , of the last drafting roller pair is provided to be less than 100°C, wherein at least one of the two rollers of each drafting roller pair is provided with the heating or cooling apparatus , and the speed (V2) with which the feed roller pair draws off the thread from the spinning apparatus is from 400 m/min to 700 m/min, characterized in that for producing a HLMS yarn from a PET polyester melt, the drafting zone is formed by a feed roller pair and five successive drafting roller pairs , a total drafting of three to eight times is provided in the drafting zone, wherein the extents of the drafting are 1.02 to 1.1 between the feed roller pair and the first drafting roller pair , 4 to 6 between the first drafting roller pair and the second drafting roller pair , 1.2 to 2.0 between the second drafting roller pair and the third drafting roller pair , 0.7 to 1.2 between the third drafting roller pair and the fourth drafting roller pair , and 0.7 to 1.2 between the fourth drafting roller pair and the fifth drafting roller pair .
An adsorption head , comprising: a body , wherein the body is a hollow housing, one side of the housing to which an adsorbed object is adsorbed is provided with an opening; the body comprises at least one adsorption chamber (51; 511; 512) therein and at least one operation chamber , wherein the operation chamber and the adsorption chamber (51; 511; 512) are spaced from each other and each have an opening orientated to the adsorbed object; and the body has at least one adsorption passage and at least one operation passage (53; 531; 532) thereon, wherein one end of the adsorption passage is communicated with the adsorption chamber (51; 511; 512), and one end of the operation passage (53; 531; 532) is communicated with the operation chamber , characterized in that , the at least one operation chamber is defined within the body of the housing, the body has a first adsorption chamber and a second adsorption chamber therein, and the first adsorption chamber is communicated with the second adsorption chamber through a communication structure which comprises a connection tube arranged on a side wall of the operation chamber .
Device for measuring a physical quantity related to an electromagnetic (EM) field emitted by an electromagnetic source , the device configured to simulate the EM characteristics of a reference object made of a lossy medium, e.g. a biological tissue, particularly a human tissue, comprising: - at least one dielectric layer comprising an upper surface face to the electromagnetic source and a bottom surface , said dielectric layer being at least partly transparent to the EM field emitted by the electromagnetic source ; characterised in that the device further comprises: - at least one electromagnetic field enhancing element arranged relative to the at least one dielectric layer and configured in a manner to enhance the intensity of the electromagnetic field transmitted through the at least one dielectric layer in a predetermined zone ; - at least one sensor arranged beneath the at least one electromagnetic field enhancing element and configured to measure said physical quantity related to the electromagnetic field transmitted through the at least one dielectric layer and the at least one electromagnetic field enhancing element . - at least one dielectric layer comprising an upper surface face to the electromagnetic source and a bottom surface , said dielectric layer being at least partly transparent to the EM field emitted by the electromagnetic source ; - at least one electromagnetic field enhancing element arranged relative to the at least one dielectric layer and configured in a manner to enhance the intensity of the electromagnetic field transmitted through the at least one dielectric layer in a predetermined zone ; - at least one sensor arranged beneath the at least one electromagnetic field enhancing element and configured to measure said physical quantity related to the electromagnetic field transmitted through the at least one dielectric layer and the at least one electromagnetic field enhancing element .
An image processing apparatus , comprising: a reflection characteristic estimation unit that estimates a reflection characteristic of a subject of an image; a highlight area detection unit that detects a highlight area in the image by using a reflection characteristic estimation result estimated by the reflection characteristic estimation unit, wherein the highlight area detection unit performs detection of an area that satisfies a low specular reflection component area, a high luminance area, and a low chroma area as the highlight area, performs an area count , and eliminates a large area part in order to reduce the highlight area; and a material feel control unit comprising: an enhancement process unit that enhances a specular reflection component , which is the reflection characteristic of the subject estimated by the reflection characteristic estimation unit, and the highlight area on a basis of the reflection characteristic estimation result and the highlight area detection result detected by the highlight area detection unit, and a limit process unit that performs a limit process, which calculates a suppression gain of a degree of enhancement of the specular reflection component and the highlight area, with respect to the image in which the specular reflection component and the highlight area are enhanced, the limit process being based on a difference between the image and the image in which the specular reflection component and the highlight area are enhanced; the material feel control unit being operable to control a material feel of the subject in the image by performing the limit process. a reflection characteristic estimation unit that estimates a reflection characteristic of a subject of an image; a highlight area detection unit that detects a highlight area in the image by using a reflection characteristic estimation result estimated by the reflection characteristic estimation unit, wherein the highlight area detection unit performs detection of an area that satisfies a low specular reflection component area, a high luminance area, and a low chroma area as the highlight area, performs an area count , and eliminates a large area part in order to reduce the highlight area; and an enhancement process unit that enhances a specular reflection component , which is the reflection characteristic of the subject estimated by the reflection characteristic estimation unit, and the highlight area on a basis of the reflection characteristic estimation result and the highlight area detection result detected by the highlight area detection unit, and a limit process unit that performs a limit process, which calculates a suppression gain of a degree of enhancement of the specular reflection component and the highlight area, with respect to the image in which the specular reflection component and the highlight area are enhanced, the limit process being based on a difference between the image and the image in which the specular reflection component and the highlight area are enhanced; the material feel control unit being operable to control a material feel of the subject in the image by performing the limit process.