mhurhangee/patent-ind-claim-en huggingface dataset:
A phase-contrast microscope comprising: a light source arranged to illuminate a sample region at a stage ; an objective lens having a numerical aperture (NA) and arranged to collect radiation from the sample region, the radiation comprising diffracted light that is diffracted by a sample; a condenser annulus having an annular light-transmission region , wherein the condenser annulus is located between the light source and sample region; and a phase plate having a first annular phase-shift region , a light transmission area , and a light-blocking region located in a peripheral region outside the annular phase-shift region, wherein the annular phase-shift region receives radiation from the sample region at an angle from the sample region corresponding to greater than one-half of the NA of the objective lens, wherein the annular phase-shift region reduces an intensity of light passing through the annular phase-shift region, wherein the light transmission area is configured to transmit the -1-order diffraction light without modifying its phase or intensity, and wherein the light-blocking region is configured to block the +1 order diffraction light. a light source arranged to illuminate a sample region at a stage ; an objective lens having a numerical aperture (NA) and arranged to collect radiation from the sample region, the radiation comprising diffracted light that is diffracted by a sample; a condenser annulus having an annular light-transmission region , wherein the condenser annulus is located between the light source and sample region; and a phase plate having a first annular phase-shift region , a light transmission area , and a light-blocking region located in a peripheral region outside the annular phase-shift region, wherein the annular phase-shift region receives radiation from the sample region at an angle from the sample region corresponding to greater than one-half of the NA of the objective lens,
A system for controlling a space , comprising: - a plurality of environmental sensors configured to measure an attribute of the space; and - a user device configured to: - receive data from the plurality of environmental sensors , the data describing one or more characteristics of one or more individuals in the space; - determine real-time demographic information based on the data of the one or more individuals in the space; - receive, from the user, a selection of a desired demographic; - construct a signature for the space based on the real-time demographic information and the desired demographic, the signature comprising one or more environmental conditions associated with the desired demographic; and - send control signals to one or more environmental devices to control an environment of the space according to the signature. - a plurality of environmental sensors configured to measure an attribute of the space; and - a user device configured to: - receive data from the plurality of environmental sensors , the data describing one or more characteristics of one or more individuals in the space; - determine real-time demographic information based on the data of the one or more individuals in the space; - receive, from the user, a selection of a desired demographic; - construct a signature for the space based on the real-time demographic information and the desired demographic, the signature comprising one or more environmental conditions associated with the desired demographic; and - send control signals to one or more environmental devices to control an environment of the space according to the signature.
An idle mode mobility management method, performed by a serving cell, characterized in that , the method comprises: obtaining a pre-configured Cell specific minimum receiving level value Qrxlevmin-offset of each neighbor cell; obtaining a pre-configured frequency specific minimum receiving level value Qrxlevmin, and broadcasting in a system broadcast message the pre-configured frequency specific minimum receiving level value Qrxlevmin and the pre-configured Cell specific minimum receiving level value Qrxlevmin-offset of each neighbor cell for reception by a terminal in the cell. obtaining a pre-configured Cell specific minimum receiving level value Qrxlevmin-offset of each neighbor cell; obtaining a pre-configured frequency specific minimum receiving level value Qrxlevmin, and broadcasting in a system broadcast message the pre-configured frequency specific minimum receiving level value Qrxlevmin and the pre-configured Cell specific minimum receiving level value Qrxlevmin-offset of each neighbor cell for reception by a terminal in the cell.
Furniture combination having a table and a box-shaped furniture body , comprising the following features: - the furniture body has a furniture panel in which a passage is provided, the table has a table leg which is guided through the passage , - the table leg is supported laterally against the furniture panel inside the passage by means of a support device , - the support device has a frame which is inserted into the passage of the furniture panel , characterised in that - a support jaw having a jaw body is arranged within a space enclosed by the frame , which jaw body is supported on one side on a first support wall of the frame and on the other side on the table leg . - the furniture body has a furniture panel in which a passage is provided, the table has a table leg which is guided through the passage , - the table leg is supported laterally against the furniture panel inside the passage by means of a support device , - the support device has a frame which is inserted into the passage of the furniture panel , characterised in that - a support jaw having a jaw body is arranged within a space enclosed by the frame , which jaw body is supported on one side on a first support wall of the frame and on the other side on the table leg .
Construction system for cemetery structures such as burial niches, tombs and ossuaries consisting of a prefabricated supporting structure consisting of a plurality of tubular elements (24-29) and a plurality of columns (11-14), said columns (11-14) being placed vertically with respect to the ground and said tubular elements being fastened transversely and longitudinally to said columns (11-14) by means of bolting and fastening elements , at points arranged on the columns (11-12-13-14), so as to identify a plurality of housing burial niches of sarcophagi and/or ossuaries , a covering being present for each burial niche, a support spacer of said covering being provided, characterized in that said support spacer consists of a screw fastened with an end thereof to said structure and with the other end to a ring , inside which ring is inserted a steel plate configured to be inserted into slots carved into a section of the covering . said columns (11-14) being placed vertically with respect to the ground and said tubular elements being fastened transversely and longitudinally to said columns (11-14) by means of bolting and fastening elements , at points arranged on the columns (11-12-13-14), so as to identify a plurality of housing burial niches of sarcophagi and/or ossuaries , a covering being present for each burial niche, a support spacer of said covering being provided, characterized in that said support spacer consists of a screw fastened with an end thereof to said structure and with the other end to a ring , inside which ring is inserted a steel plate configured to be inserted into slots carved into a section of the covering .
Securing device for securing a person, the securing device comprising a support structure , a rope drum , on which a safety rope , to which the person is attachable, is reelable, an axle element , which is attached torque-proofly to the rope drum and rotatably to the support structure such that, by the axle element , the rope drum is supported rotatably at the support structure , a lever , wherein the lever is attached pivotably to the support structure at a deflection point , wherein the lever comprises a blocking section , which is formed such that, in a blocking position of the lever , the blocking section is coupled to the rope drum in order to disable a rotation of the rope drum , and such that, in a releasing position of the lever , the blocking section is decoupled from the rope drum and the rope drum is rotatable, characterized in that the lever comprises a thread section , which is spaced apart from the blocking section , wherein the axle element comprises a further thread section , wherein the thread section is coupled to the further thread section such that, upon rotation of the axle element , due to the rotation of the rope drum , the thread section is shifted along the axle element such that, due to the shifting of the thread section , a rotation of the lever around the deflection point and an adjustment between the blocking position and the releasing position of the lever are effected. such that, in a blocking position of the lever , the blocking section is coupled to the rope drum in order to disable a rotation of the rope drum , and such that, in a releasing position of the lever , the blocking section is decoupled from the rope drum and the rope drum is rotatable,
Device for force-transmitting connection of a first supporting building part , especially a building wall , to a second supported building part , especially a staircase part , at least comprising a support element which extends between the first building part and the second building part, wherein the support element has, at least in a first longitudinal portion (x 1 ), a first force-introduction region associated with the first building part and, at least in a second longitudinal portion (x 2 ) spaced apart from the first longitudinal portion (x 1 ) in the longitudinal direction (x) of the support element , a second force-introduction region associated with the second building part , wherein, at least in one of the two force-introduction regions , the support element has a force-transmission element and/or co-operates with a force-transmission element, wherein, at least in the one of the two force-introduction regions , the support element consists of a profile body having at least two profile webs extending in the longitudinal direction, wherein the force-transmission element has a first force-introduction surface , and wherein the force-introduction surface has, in a cross-sectional plane extending orthogonally with respect to the longitudinal direction (x) of the support element , an at least in part circular-arc-shaped surface curvature, characterised in that in the installed state the force-transmission element is arranged on the underside of the support element , and the force-introduction surface of the force-transmission element is arranged on the underside of the force-transmission element . wherein, at least in one of the two force-introduction regions , the support element has a force-transmission element and/or co-operates with a force-transmission element, wherein, at least in the one of the two force-introduction regions , the support element consists of a profile body having at least two profile webs extending in the longitudinal direction, wherein the force-transmission element has a first force-introduction surface , and wherein the force-introduction surface has, in a cross-sectional plane extending orthogonally with respect to the longitudinal direction (x) of the support element , an at least in part circular-arc-shaped surface curvature, characterised in that in the installed state the force-transmission element is arranged on the underside of the support element , and the force-introduction surface of the force-transmission element is arranged on the underside of the force-transmission element .
A turbomachine component , comprising: a body , wherein the body defines an interior cooling channel in fluid communication with an exterior of the body for fluid communication with a cooling flow source; and at least one flow modifying pedestal having a rounded diamond cross-sectional shape disposed within the interior cooling channel and extending in a first direction across the cooling channel between opposed inner surfaces of the cooling channel, the at least one flow modifying pedestal including at least one flow feature that extends from the pedestal in a second direction; wherein there are one or more flow features disposed on each of two opposite sides of the pedestal at positions spaced from the inner surfaces of the cooling channel. a body , wherein the body defines an interior cooling channel in fluid communication with an exterior of the body for fluid communication with a cooling flow source; and at least one flow modifying pedestal having a rounded diamond cross-sectional shape disposed within the interior cooling channel and extending in a first direction across the cooling channel between opposed inner surfaces of the cooling channel, the at least one flow modifying pedestal including at least one flow feature that extends from the pedestal in a second direction; wherein there are one or more flow features disposed on each of two opposite sides of the pedestal at positions spaced from the inner surfaces of the cooling channel.
An in-vehicle charging control device, comprising: a control module ; a charging socket having a charging connection confirming terminal (CC) and a protective grounding terminal (PE); and a switching circuit connected with the charging connection confirming terminal (CC) and the protective grounding terminal (PE) of the charging socket respectively, wherein the control module is configured to real time monitor whether a vehicle and a charging equipment are in a charging connecting state, the control module is connected with an in-vehicle battery via the switching circuit , the charging connection confirming terminal (CC) and the protective grounding terminal (PE) of the charging socket are matched with a charging connection confirming terminal (CC) and a protective grounding terminal (PE) of a charging plug respectively, the switching circuit is in a conducting state when the charging plug is plugged in the charging socket and in a disconnection state when the charging plug is not plugged in the charging socket , and the in-vehicle battery supplies power for the control module via the switching circuit which is in the conducting state. a control module ; a charging socket having a charging connection confirming terminal (CC) and a protective grounding terminal (PE); and a switching circuit connected with the charging connection confirming terminal (CC) and the protective grounding terminal (PE) of the charging socket respectively, wherein the control module is configured to real time monitor whether a vehicle and a charging equipment are in a charging connecting state, the control module is connected with an in-vehicle battery via the switching circuit , the charging connection confirming terminal (CC) and the protective grounding terminal (PE) of the charging socket are matched with a charging connection confirming terminal (CC) and a protective grounding terminal (PE) of a charging plug respectively, the switching circuit is in a conducting state when the charging plug is plugged in the charging socket and in a disconnection state when the charging plug is not plugged in the charging socket , and the in-vehicle battery supplies power for the control module via the switching circuit which is in the conducting state.
An image data analysis device for analyzing X-ray image data of a part of a cardiovascular system of a patient in order to estimate a level of inflammation in the part of the cardiovascular system, comprising: - a data receiving unit for receiving X-ray image data comprising the part of the cardiovascular system of the patient, - a data modeling unit for generating a segmented model of the part of the cardiovascular system from the image data in the form of an anatomical model, wherein the segmented model comprises segments that have different elements, density and/or thickness, - a feature extraction unit for extracting predetermined features related to inflammation from the segmented model, wherein the feature extraction unit is configured to extract predetermined features based on pattern-recognition performed on the segmented model and to design predetermined features manually, wherein the designed predetermined features include tissue volume, HU values, gradient-based features and texture features, wherein the feature extraction unit is configured to include all the extracted and designed predetermined features into a vector and - a data processing unit for calculating inflammation values of an inflammation function depending on the extracted and designed predetermined features, wherein the vector is an input to the inflammation function, wherein each of the inflammation values represents a level of inflammation in the part of the cardiovascular system. - a data receiving unit for receiving X-ray image data comprising the part of the cardiovascular system of the patient, - a data modeling unit for generating a segmented model of the part of the cardiovascular system from the image data in the form of an anatomical model, wherein the segmented model comprises segments that have different elements, density and/or thickness, - a feature extraction unit for extracting predetermined features related to inflammation from the segmented model, wherein the feature extraction unit is configured to extract predetermined features based on pattern-recognition performed on the segmented model and to design predetermined features manually, wherein the designed predetermined features include tissue volume, HU values, gradient-based features and texture features, wherein the feature extraction unit is configured to include all the extracted and designed predetermined features into a vector and - a data processing unit for calculating inflammation values of an inflammation function depending on the extracted and designed predetermined features, wherein the vector is an input to the inflammation function, wherein each of the inflammation values represents a level of inflammation in the part of the cardiovascular system.
A soil restoration method, being applied to heavy metal polluted soil, comprising the following steps: a) testing soil condition and determining whether heavy metal pollutants are present; b) testing the heavy metal elements that have polluted the soil and collecting related data; c) when the heavy metal pollutants include at least one of the elements including mercury, cadmium, arsenic, and lead, based on the conditions and data from (a) and (b), decide which mineral elements to add to the polluted soil that provide the required antagonistic effects, including at least more than two of the elements: selenium (Se), molybdenum (Mo), germanium (Ge), zinc (Zn), sulphur (S), copper (Cu), and calcium (Ca); and at the same time add to the polluted soil mineral elements that provide the required synergistic effects, including at least more than one of the elements manganese (Mn), calcium (Ca), copper (Cu), magnesium (Mg), molybdenum (Mo), zinc (Zn), nitrogen (N), boron (B), phosphorus (P), iron (Fe), and potassium (K); and d) based on the conditions and data from steps (a) and (b), decide which photosynthetic organisms among effective micro organisms to add, together with at least more than one lactic acid organism, yeast organism, actino-organism, or fermentative filamentous flora, wherein, based on the conditions and data from steps (a) and (b), further add a variety of organism groups of effective micro organisms , the proportion of each organism group being 10 to 20% of photosynthetic organisms, 20 to 30% of lactic acid organisms, 20 to 30% of yeast organisms, 10 to 20% of actino-organisms and 10 to 20% of fermentative filamentous flora. a) testing soil condition and determining whether heavy metal pollutants are present; b) testing the heavy metal elements that have polluted the soil and collecting related data; c) when the heavy metal pollutants include at least one of the elements including mercury, cadmium, arsenic, and lead, based on the conditions and data from (a) and (b), decide which mineral elements to add to the polluted soil that provide the required antagonistic effects, including at least more than two of the elements: selenium (Se), molybdenum (Mo), germanium (Ge), zinc (Zn), sulphur (S), copper (Cu), and calcium (Ca); and at the same time add to the polluted soil mineral elements that provide the required synergistic effects, including at least more than one of the elements manganese (Mn), calcium (Ca), copper (Cu), magnesium (Mg), molybdenum (Mo), zinc (Zn), nitrogen (N), boron (B), phosphorus (P), iron (Fe), and potassium (K); and d) based on the conditions and data from steps (a) and (b), decide which photosynthetic organisms among effective micro organisms to add, together with at least more than one lactic acid organism, yeast organism, actino-organism, or fermentative filamentous flora,
A method for stripping away portions of a substrate , which method comprises, transporting the substrate through a stripping station, and at a time when the substrate is supported, locally-flat, in the stripping station to define a substrate plane , rotating at least one flexible and/or soft impact element about an axis transverse to the direction of movement of the substrate characterized in that a peripheral portion of each impact element traverses the substrate plane, whereby at least one portion of the substrate is stripped away by being displaced towards the opposite side of the substrate as a result of being repeatedly impacted and swept by the peripheral portion of the impact element.
A printing device comprising: a droplet generator for generating a droplet of printing fluid; a droplet detector for detecting a generated droplet of printing fluid, the droplet detector being moveable along an axis (x); and a controller to: cause the droplet detector to be positioned at a known location along the axis (x), cause the droplet generator to generate a droplet ; and receive a measurement signal from the droplet detector ; wherein the printing device is characterized in that the controller is to determine a location of the droplet generator based on the received measurement signal and the known location. a droplet generator for generating a droplet of printing fluid; a droplet detector for detecting a generated droplet of printing fluid, the droplet detector being moveable along an axis (x); and a controller to: cause the droplet detector to be positioned at a known location along the axis (x), cause the droplet generator to generate a droplet ; and receive a measurement signal from the droplet detector ; cause the droplet detector to be positioned at a known location along the axis (x), cause the droplet generator to generate a droplet ; and receive a measurement signal from the droplet detector ; wherein the printing device is characterized in that the controller is to determine a location of the droplet generator based on the received measurement signal and the known location.
A method comprising: at a device including a processor and a non-transitory memory : deriving a key from deployment metadata of a virtual machine, wherein the deployment metadata change with each deployment of the virtual machine ; encrypting secrets using the key to bind the key to the virtual machine ; and deploying the virtual machine in a cloud using the deployment metadata, including loading the encrypted secrets to the deployed virtual machine in the cloud . deriving a key from deployment metadata of a virtual machine, wherein the deployment metadata change with each deployment of the virtual machine ; encrypting secrets using the key to bind the key to the virtual machine ; and deploying the virtual machine in a cloud using the deployment metadata, including loading the encrypted secrets to the deployed virtual machine in the cloud .