mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method , comprising: obtaining a protocol stack requirement for a custom protocol stack , wherein the stack requirement specifies at least a description for a verifier stack component which verifies a Content Object over an Information Centric Network (ICN) using a key identifier (KeyID) associated with the producer of the Content Object; instantiating the verifier stack component in the custom stack; and using the custom stack to obtain a verified Content Object, which involves: transmitting , to the custom stack, an Interest that includes a name for a piece of content and includes the KeyID associated with the content producer; and receiving , from the custom stack, a corresponding Content Object which the verifier stack component has verified is signed by the content producer associated with the KeyID. obtaining a protocol stack requirement for a custom protocol stack , wherein the stack requirement specifies at least a description for a verifier stack component which verifies a Content Object over an Information Centric Network (ICN) using a key identifier (KeyID) associated with the producer of the Content Object; instantiating the verifier stack component in the custom stack; and using the custom stack to obtain a verified Content Object, which involves: transmitting , to the custom stack, an Interest that includes a name for a piece of content and includes the KeyID associated with the content producer; and receiving , from the custom stack, a corresponding Content Object which the verifier stack component has verified is signed by the content producer associated with the KeyID. transmitting , to the custom stack, an Interest that includes a name for a piece of content and includes the KeyID associated with the content producer; and receiving , from the custom stack, a corresponding Content Object which the verifier stack component has verified is signed by the content producer associated with the KeyID.
A consolidated impact penetration resistant laminate comprising a plurality of alternating layers of (i) non-fibrous ultra-high molecular weight polyethylene monolayers and (ii) a thermoplastic adhesive, the adhesive having a basis weight of no greater than 5 gsm and a zero-shear-rate viscosity, determined from an oscillating disc rheometer in a frequency sweep between 0.1 rad/s and 100 rad/s, conducted per ASTM D 4440 at 125°C, and calculated from fitting to a Carrea-Yasuda four parameter model, of at least 10,000 Pa-s, wherein (a) at least 90 percent of the monolayers are arranged such that the orientation of one monolayer is offset with respect to the orientation of an adjacent monolayer, and (b) the modulus of elasticity through the thickness of the laminate, as measured by Test Method A, is at least 3 GPa. (a) at least 90 percent of the monolayers are arranged such that the orientation of one monolayer is offset with respect to the orientation of an adjacent monolayer, and (b) the modulus of elasticity through the thickness of the laminate, as measured by Test Method A, is at least 3 GPa.
A method for cleaning a filter in a filter device having a filter housing and the filter located therein, the filter device having a filtered material collecting chamber for receiving filtered material which accumulates in the course of cleaning the filter , wherein the filtered material collecting chamber is filled with a fire prevention agent (B) before a first receipt of filtered material , for which purpose the filtered material collecting chamber is filled with a solid material over part of the volume of the filtered material collecting chamber , characterized in that in the course of a removal of the filtered material collecting chamber from the filter device , a targeted exchange of a chamber atmosphere for the surrounding atmosphere is carried out, wherein in connection with an inflow of atmospheric air, a mixing movement of the filtered material collecting chamber is carried out for mixing the filtered material with the solid material .
A method for assessing the oxidation states of a protein in a sample, wherein the protein is a protein selected from the list comprising: albumin, alpha-2-macroglobulin, fibrinogen beta chain, haptoglobin, immunoglobulin lambda constant 2, inter-alpha-trypsin inhibitor heavy chain H2, serotransferrin, immunoglobulin gamma-1 heavy chain, fibrinogen gamma chain and transthyretin, the method comprising the steps of: (a) contacting the sample with a first label comprising a sulfhydryl-reactive chemical group to selectively bind to a reduced cysteine group of the protein therein to form a first labelled sample; (b) forming a sub-sample of the first labelled sample; (c) treating the sub-sample with an effective amount of a thiol containing agent to cause a thiol-disulphide exchange that reduces at least one reversibly oxidised cysteine group of the protein therein preferentially to any irreversibly oxidised cysteine groups therein to form a treated sub-sample; (d) contacting the treated sub-sample with a second label comprising a sulfhydryl-reactive chemical group to selectively bind to a reduced cysteine group of the protein therein formed during step (c) to form a second labelled sample; and (e) assessing the first and second labelled samples for a plurality of oxidation states of the protein. (a) contacting the sample with a first label comprising a sulfhydryl-reactive chemical group to selectively bind to a reduced cysteine group of the protein therein to form a first labelled sample; (b) forming a sub-sample of the first labelled sample; (c) treating the sub-sample with an effective amount of a thiol containing agent to cause a thiol-disulphide exchange that reduces at least one reversibly oxidised cysteine group of the protein therein preferentially to any irreversibly oxidised cysteine groups therein to form a treated sub-sample; (d) contacting the treated sub-sample with a second label comprising a sulfhydryl-reactive chemical group to selectively bind to a reduced cysteine group of the protein therein formed during step (c) to form a second labelled sample; and (e) assessing the first and second labelled samples for a plurality of oxidation states of the protein.
Assembly for detection of foreign bodies in a multihead weigher , with a multihead weigher , wherein the multihead weigher features a plurality of weighing containers for filling with bulk material, whereat a selection of this can be emptied into one or into a plurality of chutes combined in the shape of a funnel upon arrival of a trigger signal, characterized in that the device features an image recording unit for recording of an image series, a lighting unit and an image evaluation unit for output of a signal upon detection of a foreign body in an image series, wherein the image recording unit features at least one camera for optical capturing of the funnel , wherein the at least one camera is arranged inside of or above the funnel and is set up to capture at least one section of the interior surface of the funnel between two horizontal planes. with a multihead weigher , wherein the multihead weigher features a plurality of weighing containers for filling with bulk material, whereat a selection of this can be emptied into one or into a plurality of chutes combined in the shape of a funnel upon arrival of a trigger signal, characterized in that the device features an image recording unit for recording of an image series, a lighting unit and an image evaluation unit for output of a signal upon detection of a foreign body in an image series, wherein the image recording unit features at least one camera for optical capturing of the funnel , wherein the at least one camera is arranged inside of or above the funnel and is set up to capture at least one section of the interior surface of the funnel between two horizontal planes.
A computer-implemented method comprising: receiving, by one or more processors , image data corresponding to a 3D parametric model; receiving, by the one or more processors , a selection of a scope of the 3D parametric model, the scope corresponding to a bounding box ; receiving, by the one or more processors , a selection of one or more base lines (1110, 1210, 1312; 2012) for the scope, the base lines (1110, 1210, 1312; 2012) being initial positions for dimension lines; determining, by the one or more processors , a slip type for the scope, the slip type defining a behavior translating base lines in different directions to find candidate lines (830, 832, 834; 2330) outside a silhouette of the 3D parametric model; calculating, by the one or more processors, planes of the scope of the 3D parametric model, wherein the planes include the one or more base lines and wherein the slip type is one of scope and billboard; calculating, by the one or more processors, candidate dimension lines that are in the calculated planes and that are within dimension line placement guidelines; calculating a dimension line location outside a silhouette of the 3D parametric model by using a Graphic Processing Unit, GPU , to obtain one - dimensional distance values between the silhouette and edges of a viewport for each pixel-row over the height of the viewport; selecting a dimension line where the dimension line does not intersect the silhouette and is an additional padding distance beyond the nearest intersection with the silhouette; and displaying the selected dimension line adjacent to the 3D parametric model. receiving, by one or more processors , image data corresponding to a 3D parametric model; receiving, by the one or more processors , a selection of a scope of the 3D parametric model, the scope corresponding to a bounding box ; receiving, by the one or more processors , a selection of one or more base lines (1110, 1210, 1312; 2012) for the scope, the base lines (1110, 1210, 1312; 2012) being initial positions for dimension lines; determining, by the one or more processors , a slip type for the scope, the slip type defining a behavior translating base lines in different directions to find candidate lines (830, 832, 834; 2330) outside a silhouette of the 3D parametric model; calculating, by the one or more processors, planes of the scope of the 3D parametric model, wherein the planes include the one or more base lines and wherein the slip type is one of scope and billboard; calculating, by the one or more processors, candidate dimension lines that are in the calculated planes and that are within dimension line placement guidelines; calculating a dimension line location outside a silhouette of the 3D parametric model by using a Graphic Processing Unit, GPU , to obtain one - dimensional distance values between the silhouette and edges of a viewport for each pixel-row over the height of the viewport; selecting a dimension line where the dimension line does not intersect the silhouette and is an additional padding distance beyond the nearest intersection with the silhouette; and displaying the selected dimension line adjacent to the 3D parametric model.
An anesthetic evaporator comprising an anesthetic evaporator locking structure for detachably connecting an anesthetic evaporator to an anesthesia main machine, wherein the anesthetic evaporator comprises a main body , and the anesthesia main machine comprises a driving element , the anesthetic evaporator locking structure comprises a securing member provided on the main body and a mating member provided on the anesthesia main machine, wherein the securing member and the mating member mate with each other to form a primary locking mechanism, characterized in that the anesthetic evaporator further comprises a handle provided on the main body and an unlocking device provided on the handle , and in that the anesthetic evaporator further comprises a compressing member provided on the main body , the compressing member being movably connected with the main body , and when the anesthetic evaporator is in an activated state, the compressing member is driven to move by the driving element to limit the movement of the primary locking mechanism to realize a secondary locking; and when the anesthetic evaporator is in a state of stop operating, the compressing member releases the securing member , the secondary locking is unlocked, and the unlocking device is used for unlocking the primary locking mechanism. the anesthetic evaporator further comprises a handle provided on the main body and an unlocking device provided on the handle , and in that the anesthetic evaporator further comprises a compressing member provided on the main body , the compressing member being movably connected with the main body , and when the anesthetic evaporator is in an activated state, the compressing member is driven to move by the driving element to limit the movement of the primary locking mechanism to realize a secondary locking; and when the anesthetic evaporator is in a state of stop operating, the compressing member releases the securing member , the secondary locking is unlocked, and the unlocking device is used for unlocking the primary locking mechanism.
A microneedle array comprising: a sheet; and a plurality of needles which are present on an upper surface of the sheet, wherein the needles contain a water-soluble polymer, the sheet contains a water-soluble polymer, the sheet has a central portion, which is a region where the plurality of needles are formed, and an end portion, and an average film thickness of the end portion is smaller than an average film thickness of the central portion, wherein the sheet has a curved surface shape, and an absolute value of a deformation height of the curved surface is in a range of 1 μm to 300 μm. a sheet; and a plurality of needles which are present on an upper surface of the sheet, wherein the needles contain a water-soluble polymer, the sheet contains a water-soluble polymer, the sheet has a central portion, which is a region where the plurality of needles are formed, and an end portion, and an average film thickness of the end portion is smaller than an average film thickness of the central portion, wherein the sheet has a curved surface shape, and an absolute value of a deformation height of the curved surface is in a range of 1 μm to 300 μm.
A liquid discharge apparatus , comprising a liquid discharge device , the liquid discharge device comprising: a liquid discharge head configured to discharge a liquid; a liquid storage portion configured to store the liquid; a first channel configured to discharge the liquid from the liquid storage portion via the liquid discharge head ; and a second channel configured to connect a top portion of the liquid storage portion and the first channel , the first channel extending from a junction between the liquid storage portion and the first channel to a junction between the first channel and the second channel , the second channel extending from a junction between the liquid storage portion and the second channel to the junction between the first channel and the second channel , and a fluid resistance of the first channel being less than a fluid resistance of the second channel , characterized in that the liquid discharge apparatus further comprises an air release valve configured to discharge air in the liquid storage portion ; a discharge channel , one end of which is connected to the junction between the first channel and the second channel and another end of which is connected to the air release valve ; and circuitry configured to open the air release valve and supply the liquid to the liquid storage portion to discharge air in the liquid storage portion from the air release valve . a liquid discharge head configured to discharge a liquid; a liquid storage portion configured to store the liquid; a first channel configured to discharge the liquid from the liquid storage portion via the liquid discharge head ; and a second channel configured to connect a top portion of the liquid storage portion and the first channel , the first channel extending from a junction between the liquid storage portion and the first channel to a junction between the first channel and the second channel , the second channel extending from a junction between the liquid storage portion and the second channel to the junction between the first channel and the second channel , and a fluid resistance of the first channel being less than a fluid resistance of the second channel , characterized in that the liquid discharge apparatus further comprises an air release valve configured to discharge air in the liquid storage portion ; a discharge channel , one end of which is connected to the junction between the first channel and the second channel and another end of which is connected to the air release valve ; and circuitry configured to open the air release valve and supply the liquid to the liquid storage portion to discharge air in the liquid storage portion from the air release valve .
A method for communication of a terminal in a mobile communication system, the method comprising: receiving , from a base station , a radio resource control, RRC, message including first information on a number of reference signal resources related to a pathloss of a downlink signal transmitted from the base station; obtaining mapping information between the reference signal resources and values for indicating each of the reference signal resources; receiving , from the base station, downlink control information, DCI, including second information associated with one of the values; determining a reference signal resource corresponding to the second information among the reference signal resources, based on the mapping information; identifying the pathloss based on the determined reference signal resource; determining a transmission power based on the identified path loss; and transmitting , to the base station, an uplink signal with the determined transmission power. receiving , from a base station , a radio resource control, RRC, message including first information on a number of reference signal resources related to a pathloss of a downlink signal transmitted from the base station; obtaining mapping information between the reference signal resources and values for indicating each of the reference signal resources; receiving , from the base station, downlink control information, DCI, including second information associated with one of the values; determining a reference signal resource corresponding to the second information among the reference signal resources, based on the mapping information; identifying the pathloss based on the determined reference signal resource; determining a transmission power based on the identified path loss; and transmitting , to the base station, an uplink signal with the determined transmission power.
Valve comprising a housing with a fluid inlet , a fluid outlet , and a cavity positioned between the fluid inlet and the fluid outlet in the housing , wherein a membrane is arranged at an end of the fluid inlet or at an end of the fluid outlet facing the cavity and a movable solid element is in touching contact with the membrane arranged on a side of the membrane facing the cavity , so that the membrane can be deformed by the solid element upon exertion of pressure on the solid element for closing and opening the fluid inlet or the fluid outlet , and characterized by a movable element arranged in the cavity and in touching contact with the solid element , wherein the movable element is held in a first position by a biased spring and a shape-memory-actuator , which are arranged on opposite sides of the movable element , wherein the shape-memory-actuator comprises a shape-memory-alloy which is activatable by applying an electric voltage resulting in a deformation of the shape-memory-actuator and in a movement of the movable element , thereby exerting pressure on the solid element so that the solid element moves, a deformation of the membrane takes place and a fluid passage between the fluid inlet and the fluid outlet can be opened and closed. a housing with a fluid inlet , a fluid outlet , and a cavity positioned between the fluid inlet and the fluid outlet in the housing , wherein a membrane is arranged at an end of the fluid inlet or at an end of the fluid outlet facing the cavity and a movable solid element is in touching contact with the membrane arranged on a side of the membrane facing the cavity , so that the membrane can be deformed by the solid element upon exertion of pressure on the solid element for closing and opening the fluid inlet or the fluid outlet , and characterized by a movable element arranged in the cavity and in touching contact with the solid element , wherein the movable element is held in a first position by a biased spring and a shape-memory-actuator , which are arranged on opposite sides of the movable element , wherein the shape-memory-actuator comprises a shape-memory-alloy which is activatable by applying an electric voltage resulting in a deformation of the shape-memory-actuator and in a movement of the movable element , thereby exerting pressure on the solid element so that the solid element moves, a deformation of the membrane takes place and a fluid passage between the fluid inlet and the fluid outlet can be opened and closed.
A device comprising circuitry including a processor and a memory , the memory containing instructions executable by the processor whereby the device is operative to: establish a local network connection with an access point using a first type of access technology; receive, from the access point , an indication of a second type of access technology used by the access point to connect to an access network ; determine the type of power source used by the device; select a mode of operation of the device in accordance with the second type of access technology used by the access point and the a type of power source used by the device , the device operating in a first or second mode, wherein the device automatically performs some functions related to downloading and/or uploading information in the first mode, and wherein the device suspends downloading or uploading functions in the second mode. establish a local network connection with an access point using a first type of access technology; receive, from the access point , an indication of a second type of access technology used by the access point to connect to an access network ; determine the type of power source used by the device; select a mode of operation of the device in accordance with the second type of access technology used by the access point and the a type of power source used by the device , the device operating in a first or second mode, wherein the device automatically performs some functions related to downloading and/or uploading information in the first mode, and wherein the device suspends downloading or uploading functions in the second mode.
A process for the preparation of 5,5'bis[2-(4-pyridinyl)-1 H -benzimidazole] (ridinilazole), the process comprising the steps of: (a) metal-ion catalysed coupling of 3,4,3',4'-tetraaminobiphenyl with 4-pyridinecarboxaldehyde in the presence of a solvent and oxygen, (b) adding a metal-ion complexing agent, and (c) isolating ridinilazole from the reaction mixture (a) metal-ion catalysed coupling of 3,4,3',4'-tetraaminobiphenyl with 4-pyridinecarboxaldehyde in the presence of a solvent and oxygen, (b) adding a metal-ion complexing agent, and (c) isolating ridinilazole from the reaction mixture