mhurhangee/patent-ind-claim-en huggingface dataset:
A steam-using facility monitoring system (M) comprised of a steam-using equipment , which is a component that consumes steam for a particular purpose, comprising: a steam controller which includes a steam trap (T); and a control state detector (D1) that detects a state of the steam controller provided in a steam pipe accompanying the steam-using equipment , wherein the control state detector (D1) includes a trap state detector (D1) for detecting a state of the steam trap ; and an operational state estimating means (S) having a signal input unit (S1) and an operational state estimation unit (S2), wherein the signal input unit (S1) is configured to input a detection signal (σ i ) from the control state detector (D1) characterized in that the operational state estimation unit (S2) is configured to estimate the operational state of the steam-using equipment for sensing early a sign of abnormality in the steam-using equipment based on one inputted detection signal (σ i ) or a preset particular combination of detection signals (σ i ) and in that the control state detector (D1) is configured to detect vibration of the steam controller . a steam controller which includes a steam trap (T); and a control state detector (D1) that detects a state of the steam controller provided in a steam pipe accompanying the steam-using equipment , wherein the control state detector (D1) includes a trap state detector (D1) for detecting a state of the steam trap ; and an operational state estimating means (S) having a signal input unit (S1) and an operational state estimation unit (S2), wherein the signal input unit (S1) is configured to input a detection signal (σ i ) from the control state detector (D1) characterized in that the operational state estimation unit (S2) is configured to estimate the operational state of the steam-using equipment for sensing early a sign of abnormality in the steam-using equipment based on one inputted detection signal (σ i ) or a preset particular combination of detection signals (σ i ) and in that the control state detector (D1) is configured to detect vibration of the steam controller .
A cable suitable for use as a headline sonar cable, the cable having: a. a conductor intertwined with a deformable thermoplastic rod , the conductor comprising insulation having a higher softening temperature than that of the rod ; b. a water-barrier layer enclosing the conductor and the deformable rod ; c. a strength-member jacket layer of polymeric material enclosing within itself the conductor , the deformable rod and the water-barrier layer , the cable characterized in that: an extrusion-barrier layer encloses the conductor , the rod and the water barrier layer , the extrusion-barrier layer being enclosed by the strength-member jacket layer , the extrusion-barrier layer formed of a material having a higher softening temperature than the material of the water- barrier layer , the extrusion-barrier layer formed from braided polyester fibers, whereby semi-soft material of the water-barrier layer will not extrude through the extrusion-barrier layer during prestretching and heatsetting of the cable layers. a. a conductor intertwined with a deformable thermoplastic rod , the conductor comprising insulation having a higher softening temperature than that of the rod ; b. a water-barrier layer enclosing the conductor and the deformable rod ; c. a strength-member jacket layer of polymeric material enclosing within itself the conductor , the deformable rod and the water-barrier layer , the cable characterized in that: an extrusion-barrier layer encloses the conductor , the rod and the water barrier layer , the extrusion-barrier layer being enclosed by the strength-member jacket layer , the extrusion-barrier layer formed of a material having a higher softening temperature than the material of the water- barrier layer , the extrusion-barrier layer formed from braided polyester fibers, whereby semi-soft material of the water-barrier layer will not extrude through the extrusion-barrier layer during prestretching and heatsetting of the cable layers.
Hair dryer for generating an air flow, the hair dryer comprising: a curved shape unit (CS) defining an outer surface of the hair dryer, a first part (OS1) of the outer surface being at an angle to a desired direction of the air flow (AF), and a second part (OS2) of the outer surface being aligned with the desired direction of the air flow (AF), wherein the air flow is guided from the first part (OS1) of the outer surface to the second part (OS2) of the outer surface into the desired direction towards a user's hair; a fan unit (F) at the first part (OS1) of the outer surface, the fan unit having an air inlet, and an air outlet arranged for blowing air along the first part (OS1) of the outer surface; and a heater arranged for heating a user's hair. a curved shape unit (CS) defining an outer surface of the hair dryer, a first part (OS1) of the outer surface being at an angle to a desired direction of the air flow (AF), and a second part (OS2) of the outer surface being aligned with the desired direction of the air flow (AF), wherein the air flow is guided from the first part (OS1) of the outer surface to the second part (OS2) of the outer surface into the desired direction towards a user's hair; a fan unit (F) at the first part (OS1) of the outer surface, the fan unit having an air inlet, and an air outlet arranged for blowing air along the first part (OS1) of the outer surface; and a heater arranged for heating a user's hair.
An image generation apparatus that generates images based on an original image, wherein the images based on the original image include an image containing phase-modulated components a and an image containing phase-modulated components b, the image containing phase-modulated components a and the image containing phase-modulated components b are determined such that one who sees the original image or a subject represented by the original image together with the image containing phase-modulated components a with one eye and sees the original image or the subject together with the image containing phase-modulated components b with another eye perceives a stereo image, and one who sees the original image or the subject, the image containing phase-modulated components a, and the image containing phase-modulated components b with same eye(s) perceives only the original image, and the image generation apparatus includes a first manipulator (13a, 83-87, 811, 812, 821, 822, 823, 824) that obtains the phase-modulated components a by shifting phases of spatial frequency components of the original image by a first phase, and a second manipulator that obtains the phase-modulated components b by shifting the phases of spatial frequency components of the original image by a second phase being a different phase than the first phase, wherein the phase-modulated components a include first components generated by giving a first weight to the original image, and phases of the phase-modulated components a are different relative to the phase of the original image by the first phase, the phase-modulated components b include second components generated by giving a second weight to the original image, and phases of the phase-modulated components b are different relative to the phase of the original image by the second phase, the first weight contains weight components different from each other that are given to regions different from each other, and the second weight contains weight components different from each other that are given to regions different from each other. one who sees the original image or a subject represented by the original image together with the image containing phase-modulated components a with one eye and sees the original image or the subject together with the image containing phase-modulated components b with another eye perceives a stereo image, and one who sees the original image or the subject, the image containing phase-modulated components a, and the image containing phase-modulated components b with same eye(s) perceives only the original image, and a first manipulator (13a, 83-87, 811, 812, 821, 822, 823, 824) that obtains the phase-modulated components a by shifting phases of spatial frequency components of the original image by a first phase, and a second manipulator that obtains the phase-modulated components b by shifting the phases of spatial frequency components of the original image by a second phase being a different phase than the first phase, wherein
A computer-implemented method for blockchain-based decentralized-identifier authentication, comprising: obtaining a request for authenticating a decentralized identifier, DID, wherein the request comprises the DID, a plaintext associated with a challenge for authenticating the DID, and a digital signature on the plaintext; obtaining a public key associated with the DID; determining , based on the obtained public key and the plaintext, that the digital signature on the plaintext is created based on a private key corresponding to the DID; and generating , based on the determination, a message confirming authentication of the DID; and sending the message confirming authentication of the DID to a computing device associated with a creator of the challenge for authenticating the DID, or sending the message confirming authentication of the DID to a computing device associated with a sender of the request for authenticating the DID for the sender to forward the message to the creator of the challenge. obtaining a request for authenticating a decentralized identifier, DID, wherein the request comprises the DID, a plaintext associated with a challenge for authenticating the DID, and a digital signature on the plaintext; obtaining a public key associated with the DID; determining , based on the obtained public key and the plaintext, that the digital signature on the plaintext is created based on a private key corresponding to the DID; and generating , based on the determination, a message confirming authentication of the DID; and sending the message confirming authentication of the DID to a computing device associated with a creator of the challenge for authenticating the DID, or sending the message confirming authentication of the DID to a computing device associated with a sender of the request for authenticating the DID for the sender to forward the message to the creator of the challenge.
A solid-liquid separator comprising: a screw type dehydration unit including a screw that includes a first rotary shaft and is configured to feed a supplied object to be processed with rotation of the first rotary shaft, and a layered filter body that surrounds the screw and includes a first filtration groove (S1), the screw type dehydration unit that is configured to perform primary dehydration on the object to be processed; and a rotary-body type dehydration unit including a plurality of rotary bodies that include second rotary shafts and layered rotary filter bodies disposed along axial directions of the second rotary shafts and including second filtration grooves (S2), the plurality of rotary bodies disposed in two upper and lower rows, the rotary-body type dehydration unit disposed subsequent to the screw type dehydration unit and that is configured to perform secondary dehydration on the object to be processed on which the primary dehydration has been performed by the screw type dehydration unit; wherein the solid-liquid separator is configured to rotate the screw at a higher rotational speed than those of the rotary bodies, the screw type dehydration unit and the rotary-body type dehydration unit are integrally provided, and the screw type dehydration unit is inclined obliquely upward toward the rotary-body type dehydration unit. a screw type dehydration unit including a screw that includes a first rotary shaft and is configured to feed a supplied object to be processed with rotation of the first rotary shaft, and a layered filter body that surrounds the screw and includes a first filtration groove (S1), the screw type dehydration unit that is configured to perform primary dehydration on the object to be processed; and a rotary-body type dehydration unit including a plurality of rotary bodies that include second rotary shafts and layered rotary filter bodies disposed along axial directions of the second rotary shafts and including second filtration grooves (S2), the plurality of rotary bodies disposed in two upper and lower rows, the rotary-body type dehydration unit disposed subsequent to the screw type dehydration unit and that is configured to perform secondary dehydration on the object to be processed on which the primary dehydration has been performed by the screw type dehydration unit; wherein the solid-liquid separator is configured to rotate the screw at a higher rotational speed than those of the rotary bodies, the screw type dehydration unit and the rotary-body type dehydration unit are integrally provided, and the screw type dehydration unit is inclined obliquely upward toward the rotary-body type dehydration unit.
A blood brain barrier shuttle comprising a full length IgG antibody directed to a brain target, a linker and one scFab directed to the transferrin receptor, wherein the scFab is coupled by the linker to the C-terminal end of the Fc part of one of the heavy chains of the full length IgG antibody
X-ray imaging plate system comprising a) an x-ray imaging plate which is configured to be exposed by x-ray light in a recording region and which on at least one side carries a shadowing marker , which is arranged in the recording region, b) an imaging plate reader which is configured to read the exposed x-ray imaging plate in order to produce an x-ray recording , wherein c) the shadowing marker has a shadowing effect in respect of x-ray light that is so small, in particular no more than approximately 30% of the incident x-ray intensity, that the shadowing marker is only weakly identifiable, only identifiable by way of image artefacts and/or not identifiable when the x-ray recording is observed by the user, and in that d) the imaging plate reader has an identification algorithm which is configured to identify whether or not the x-ray light has been shadowed by the shadowing marker during the exposure, characterized in that e) the shadowing marker is at least a part of a radio marker attached to the x-ray imaging plate . a) an x-ray imaging plate which is configured to be exposed by x-ray light in a recording region and which on at least one side carries a shadowing marker , which is arranged in the recording region, b) an imaging plate reader which is configured to read the exposed x-ray imaging plate in order to produce an x-ray recording , wherein c) the shadowing marker has a shadowing effect in respect of x-ray light that is so small, in particular no more than approximately 30% of the incident x-ray intensity, that the shadowing marker is only weakly identifiable, only identifiable by way of image artefacts and/or not identifiable when the x-ray recording is observed by the user, and in that d) the imaging plate reader has an identification algorithm which is configured to identify whether or not the x-ray light has been shadowed by the shadowing marker during the exposure, characterized in that e) the shadowing marker is at least a part of a radio marker attached to the x-ray imaging plate .
Luggage box , in particular for releasable attachment to a rear load carrier to be mounted to a vehicle, the luggage box comprising a rigid bottom element , a rigid cover element , and side walls made of fabric, wherein the luggage box is foldable between a use configuration, in which the bottom element and the cover element are spaced apart from one another and the side walls connect the bottom element and the cover element , thus forming a luggage receiving space inside, and a transport configuration, in which the cover element lies on the bottom element and the side walls are folded in between the cover element and the bottom element , characterized in that the luggage box comprises two support yokes held on opposite sections of the bottom element , which can be pivoted about a pivot axis between a support position, in which they extend upright from the bottom element so that they support the cover element in the use configuration, and a low position, in which the support yokes lie on the bottom element so that the cover element can lie on the bottom element in the transport configuration. a rigid bottom element , a rigid cover element , and side walls made of fabric,
An apparatus comprising means for carrying out a system access to a primary cell for a primary cell connection; means for obtaining radio connection configuration information for the primary cell in a response to the system access to the primary cell; means for carrying out a radio connection setup for the primary cell; means for monitoring at least one candidate for a secondary cell for multi-connectivity, when a primary cell connection exists; characterized in that the apparatus comprises: means for selecting at least one of the at least one candidate for the secondary cell as a secondary cell, and, means for carrying out a system access to the at least one secondary cell for at least one secondary cell connection by using a same user device system access identity as that used in the primary cell connection for controlling the primary cell connection and the at least one secondary cell connection of the multi-connectivity, means for obtaining radio connection setup configuration information for the at least one secondary cell in a response to the system access to the at least one secondary cell, and means for carrying out a radio connection setup for the secondary cell for the multi-connectivity. means for carrying out a system access to a primary cell for a primary cell connection; means for obtaining radio connection configuration information for the primary cell in a response to the system access to the primary cell; means for carrying out a radio connection setup for the primary cell; means for monitoring at least one candidate for a secondary cell for multi-connectivity, when a primary cell connection exists; means for selecting at least one of the at least one candidate for the secondary cell as a secondary cell, and, means for carrying out a system access to the at least one secondary cell for at least one secondary cell connection by using a same user device system access identity as that used in the primary cell connection for controlling the primary cell connection and the at least one secondary cell connection of the multi-connectivity, means for obtaining radio connection setup configuration information for the at least one secondary cell in a response to the system access to the at least one secondary cell, and means for carrying out a radio connection setup for the secondary cell for the multi-connectivity.
A cell genetically modified to express an anti-CD19 CAR wherein the CAR comprises a CD19 antigen binding domain, a costimulatory signaling region, and a CD3 zeta signaling domain, for use in a method for preventing or delaying rejection of a transplanted tissue or organ in a subject, the method comprising administering to the subject an effective amount of said genetically modified cell before, at the same time as, or after the administration of the transplanted tissue or organ, wherein the CD19 antigen binding domain targets the CD19 B cell surface marker, wherein the genetically modified cell depletes B cells, and wherein B cell aplasia is sustained for eighteen months after the administration of the genetically modified cell to the subject, wherein the tissue or organ is heart, heart valve, lung, kidney, liver, pancreas, intestine, skin, blood vessel, bone marrow, stem cell, bone or islet cell.
A method of forming a coating on an airfoil comprising: - inserting an airfoil into a cathodic arc apparatus ; - vaporizing at least one cathodic material (A, B, C) by applying an arc to the cathodic material to form atoms ions and macroparticles of the cathodic material (A, B, C) in an atmosphere within the apparatus so that the atoms form a coating on the airfoil ; characterized in that - the parameters of the arc are adjusted to form liquid, semi-solid, or solid macroparticles of the cathodic material (A, B, C) so that the macroparticles embed into or onto the coating , wherein the cathodic material (A, B, C) is deposited as a metal and/or in reactive gas to form a nitride, carbide, oxide or mixture thereof, and wherein the cathodic material (A, B, C) or its nitride, carbide, oxide or mixture thereof has at least one property of sacrificial corrosion resistance or self-healing, wherein the macroparticles comprise at least 70 at% aluminum to provide the coating with a sacrificial component that is less noble than the airfoil . - inserting an airfoil into a cathodic arc apparatus ; - vaporizing at least one cathodic material (A, B, C) by applying an arc to the cathodic material to form atoms ions and macroparticles of the cathodic material (A, B, C) in an atmosphere within the apparatus so that the atoms form a coating on the airfoil ; characterized in that - the parameters of the arc are adjusted to form liquid, semi-solid, or solid macroparticles of the cathodic material (A, B, C) so that the macroparticles embed into or onto the coating , wherein the cathodic material (A, B, C) is deposited as a metal and/or in reactive gas to form a nitride, carbide, oxide or mixture thereof, and wherein the cathodic material (A, B, C) or its nitride, carbide, oxide or mixture thereof has at least one property of sacrificial corrosion resistance or self-healing, wherein the macroparticles comprise at least 70 at% aluminum to provide the coating with a sacrificial component that is less noble than the airfoil . - the parameters of the arc are adjusted to form liquid, semi-solid, or solid macroparticles of the cathodic material (A, B, C) so that the macroparticles embed into or onto the coating , wherein the cathodic material (A, B, C) is deposited as a metal and/or in reactive gas to form a nitride, carbide, oxide or mixture thereof, and wherein the cathodic material (A, B, C) or its nitride, carbide, oxide or mixture thereof has at least one property of sacrificial corrosion resistance or self-healing, wherein the macroparticles comprise at least 70 at% aluminum to provide the coating with a sacrificial component that is less noble than the airfoil .
Method for operating a battery system , in particular for a motor vehicle having an electric drive, the battery system having a traction battery , a battery management device , and one or more cell monitoring units which each monitor cell voltages of a number of battery cells of a cell arrangement , the method having the following steps: - monitoring the one or more cell monitoring units ; - if a fault is detected in one of the cell monitoring units , assuming a fault operating mode of the traction battery depending on state data of the cell arrangement associated with the relevant cell monitoring unit , characterized in that the fault operating mode comprises setting a charging and/or energy recovery barrier for the traction battery . - monitoring the one or more cell monitoring units ; - if a fault is detected in one of the cell monitoring units , assuming a fault operating mode of the traction battery depending on state data of the cell arrangement associated with the relevant cell monitoring unit ,