mhurhangee/patent-ind-claim-en huggingface dataset:
A webbing take-up device comprising: a spool that takes up a webbing worn by an occupant, and that is rotated in a pull-out direction by the webbing being pulled out; a lock section that limits pull-out direction rotation of the spool in a vehicle emergency; an energy absorption member configured to be deformed so as to generate a force limiter load in the spool , in a case in which the lock section has limited pull-out direction rotation of the spool ; a moving section to which the energy absorption member is anchored, and that moves the energy absorption member by the spool being rotated in a case in which the lock section has limited rotation of the spool ; a pressing section including a pressing face that presses the energy absorption member such that the energy absorption member is deformed; and a pass-through portion through which the energy absorption member that has passed the pressing face passes, wherein: on the energy absorption member , a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face , and a width (W1) of the pass-through portion is wider than a width (W2) of the initial deformation location . a spool that takes up a webbing worn by an occupant, and that is rotated in a pull-out direction by the webbing being pulled out; a lock section that limits pull-out direction rotation of the spool in a vehicle emergency; an energy absorption member configured to be deformed so as to generate a force limiter load in the spool , in a case in which the lock section has limited pull-out direction rotation of the spool ; a moving section to which the energy absorption member is anchored, and that moves the energy absorption member by the spool being rotated in a case in which the lock section has limited rotation of the spool ; a pressing section including a pressing face that presses the energy absorption member such that the energy absorption member is deformed; and a pass-through portion through which the energy absorption member that has passed the pressing face passes, wherein: on the energy absorption member , a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face , and a width (W1) of the pass-through portion is wider than a width (W2) of the initial deformation location . on the energy absorption member , a location pressed by the pressing face in a state prior to the moving section moving the energy absorption member configures an initial deformation location that is deformed into a shape corresponding to the pressing face , and a width (W1) of the pass-through portion is wider than a width (W2) of the initial deformation location .
Control rod for adjusting a rotor blade of a helicopter, wherein the control rod can be adjusted in the longitudinal direction, said control rod comprising: - at least one bearing-region element , which is arranged so as to be able to rotate about the longitudinal axis of the control rod within a pivoting range, - at least one stop element , which is designed to delimit the adjustability of the control rod in the longitudinal direction to a predefinable adjustment range in interaction with the at least one bearing-region element , wherein the adjustability is delimited in that the at least one bearing-region element comes to bear against the at least one stop element in the circumferential direction of the control rod , characterized in that the at least one stop element can be displaced in the circumferential direction of the control rod in order to change the predefinable adjustment range, in such a way that a larger or a smaller pivoting range can be implemented. - at least one bearing-region element , which is arranged so as to be able to rotate about the longitudinal axis of the control rod within a pivoting range, - at least one stop element , which is designed to delimit the adjustability of the control rod in the longitudinal direction to a predefinable adjustment range in interaction with the at least one bearing-region element , wherein the adjustability is delimited in that the at least one bearing-region element comes to bear against the at least one stop element in the circumferential direction of the control rod , characterized in that the at least one stop element can be displaced in the circumferential direction of the control rod in order to change the predefinable adjustment range, in such a way that a larger or a smaller pivoting range can be implemented.
A heat exchanger , comprising: a first fin having a first end and a second end in a lateral direction; a second fin having a third end and a fourth end in the lateral direction, the third end being positioned to face the second end ; a first heat transfer tube positioned away from the first end by a first predetermined interval and passing through the first fin ; and a second heat transfer tube positioned away from the third end by a second predetermined interval and passing through the second fin , the first heat transfer tube having a planar or curved first upper surface and a planar first lower surface , the second heat transfer tube having a planar or curved second upper surface and a planar second lower surface , and the heat exchanger being characterized in that : when the first upper surface is defined as a first surface in a case where the first upper surface has a planar shape, a tangent plane of the first upper surface is defined as a first surface in a case where the first upper surface has a curved shape, the second upper surface is defined as a second surface in a case where the second upper surface has a planar shape, and a tangent plane of the second upper surface is defined as a second surface in a case where the second upper surface has a curved shape, and when the first heat transfer tube and the second heat transfer tube are viewed in such a manner that the first lower surface is horizontal, in a vertical cross section perpendicular to a direction in which the first heat transfer tube passes through the first fin , the first surface being inclined downward toward the first end , the second surface being inclined downward toward the third end , an upper end of the second heat transfer tube being located higher than the first lower surface , an intersecting point A at which the second surface or an extension line of the second surface and an extension line of the first lower surface intersect being located closer to the second heat transfer tube than is an intersecting point B at which the second surface or the extension line of the second surface and an extension line of the second lower surface intersect. a first fin having a first end and a second end in a lateral direction; a second fin having a third end and a fourth end in the lateral direction, the third end being positioned to face the second end ; a first heat transfer tube positioned away from the first end by a first predetermined interval and passing through the first fin ; and a second heat transfer tube positioned away from the third end by a second predetermined interval and passing through the second fin , the first heat transfer tube having a planar or curved first upper surface and a planar first lower surface , the second heat transfer tube having a planar or curved second upper surface and a planar second lower surface , and the heat exchanger being characterized in that :
2. A system comprising a transfer system and a processing equipment, the transfer system being configured for transporting an article into or out of the processing equipment provided with a first loading port and a first controller , said transfer system comprising: a transfer vehicle for an article; an automated warehouse provided with a second controller and a second loading port for transferring an article between the transfer vehicle and the automated warehouse , the automated warehouse being attachable and detachable in front of the processing equipment ; and a communication apparatus configured to communicate with the transfer vehicle , and provided with a switch for switching a connection destination of the first controller between the second controller and the transfer vehicle . a transfer vehicle for an article; an automated warehouse provided with a second controller and a second loading port for transferring an article between the transfer vehicle and the automated warehouse , the automated warehouse being attachable and detachable in front of the processing equipment ; and a communication apparatus configured to communicate with the transfer vehicle , and provided with a switch for switching a connection destination of the first controller between the second controller and the transfer vehicle .
An imaging controller comprising an electronic processor programmed to perform an imaging method executing a current imaging session which is part of a multi-session imaging study of a subject, the imaging method including: retrieving imaging data acquisition and reconstruction parameters of a previous imaging session of the imaging study as well as spatial parameters of at least one finding of the previous imaging session from a Binary Large OBject (BLOB) that stores information for the imaging study including at least the imaging data acquisition and reconstruction parameters of the previous imaging session as well as spatial parameters of at least one finding of the previous imaging session ; automatically configuring an imaging system with the retrieved imaging data acquisition and reconstruction parameters of the previous imaging session; after the automatic configuring, controlling the imaging system to acquire current imaging data from the subject and to reconstruct the current imaging data to generate a current image of the subject; using the retrieved spatial parameters of the at least one finding to identify a region of interest (ROI) or delineation contour in the current image ; and storing the imaging data acquisition and reconstruction parameters used in the controlling in the BLOB as the imaging data acquisition and reconstruction parameters of the current imaging session of the imaging study. retrieving imaging data acquisition and reconstruction parameters of a previous imaging session of the imaging study as well as spatial parameters of at least one finding of the previous imaging session from a Binary Large OBject (BLOB) that stores information for the imaging study including at least the imaging data acquisition and reconstruction parameters of the previous imaging session as well as spatial parameters of at least one finding of the previous imaging session ; automatically configuring an imaging system with the retrieved imaging data acquisition and reconstruction parameters of the previous imaging session; after the automatic configuring, controlling the imaging system to acquire current imaging data from the subject and to reconstruct the current imaging data to generate a current image of the subject; using the retrieved spatial parameters of the at least one finding to identify a region of interest (ROI) or delineation contour in the current image ; and storing the imaging data acquisition and reconstruction parameters used in the controlling in the BLOB as the imaging data acquisition and reconstruction parameters of the current imaging session of the imaging study.
An apparatus for producing a three-dimensional work piece, the apparatus comprising: - a process chamber accommodating a carrier for receiving a raw material powder, - an irradiation device for selectively irradiating electromagnetic or particle radiation onto the raw material powder on the carrier in order to produce a work piece made of said raw material powder by an additive layer construction method, - a first gas inlet for supplying gas to the process chamber and a gas outlet for discharging gas from the process chamber , wherein the first gas inlet and the gas outlet are configured and arranged in such a manner that a first gas flow (F1) across the carrier is generated, - a transmission element which allows the transmission of the electromagnetic or particle radiation emitted by the irradiation device into the process chamber and which is integrated into a top wall of the process chamber , and - a second gas inlet for supplying gas to the process chamber which is arranged adjacent to the transmission element , wherein the second gas inlet is configured and arranged at least in the top wall of the process chamber in such a manner that a second gas flow (F2) in a direction facing away from the transmission element , in a direction substantially perpendicular to the top wall of the process chamber and in a direction of the carrier substantially perpendicular to the carrier is generated, wherein the second gas inlet comprises a plurality of gas inlet openings which are configured and arranged so as to define a second gas inlet area (A) arranged substantially parallel to the carrier . - a process chamber accommodating a carrier for receiving a raw material powder, - an irradiation device for selectively irradiating electromagnetic or particle radiation onto the raw material powder on the carrier in order to produce a work piece made of said raw material powder by an additive layer construction method, - a first gas inlet for supplying gas to the process chamber and a gas outlet for discharging gas from the process chamber , wherein the first gas inlet and the gas outlet are configured and arranged in such a manner that a first gas flow (F1) across the carrier is generated, - a transmission element which allows the transmission of the electromagnetic or particle radiation emitted by the irradiation device into the process chamber and which is integrated into a top wall of the process chamber , and - a second gas inlet for supplying gas to the process chamber which is arranged adjacent to the transmission element , wherein the second gas inlet is configured and arranged at least in the top wall of the process chamber in such a manner that a second gas flow (F2) in a direction facing away from the transmission element , in a direction substantially perpendicular to the top wall of the process chamber and in a direction of the carrier substantially perpendicular to the carrier is generated,
A process for selectively recovering silver from an electrically conducting substrate, said process comprising the following successive steps of: a) providing a system comprising: ∘ an electrically conducting substrate, comprising a first face covered with silver and a second face covered with aluminium, the first face forming a first positive electrode and the second face forming a first negative electrode, and ∘ a control device, connected to the first positive electrode and to the first negative electrode, the control device enabling the potential or current of an electrode to be controlled; b) dipping the first positive electrode and the first negative electrode into an electrolyte solution, the electrolyte solution being an aqueous solution comprising at least one acid and a silver complexing agent, the electrolyte solution having a pH ranging from -1 to 6; and c) applying a potential or a current to the first positive electrode or to the first negative electrode, so as to dissolve silver from the first positive electrode in the electrolyte solution and to passivate aluminium from the first negative electrode. a) providing a system comprising: ∘ an electrically conducting substrate, comprising a first face covered with silver and a second face covered with aluminium, the first face forming a first positive electrode and the second face forming a first negative electrode, and ∘ a control device, connected to the first positive electrode and to the first negative electrode, the control device enabling the potential or current of an electrode to be controlled; ∘ an electrically conducting substrate, comprising a first face covered with silver and a second face covered with aluminium, the first face forming a first positive electrode and the second face forming a first negative electrode, and ∘ a control device, connected to the first positive electrode and to the first negative electrode, the control device enabling the potential or current of an electrode to be controlled; b) dipping the first positive electrode and the first negative electrode into an electrolyte solution, the electrolyte solution being an aqueous solution comprising at least one acid and a silver complexing agent, the electrolyte solution having a pH ranging from -1 to 6; and c) applying a potential or a current to the first positive electrode or to the first negative electrode, so as to dissolve silver from the first positive electrode in the electrolyte solution and to passivate aluminium from the first negative electrode.
A cemented lens comprising: a first optical element ; a second optical element ; a third optical element sandwiched between the first optical element and the second optical element, the third optical element containing resin; a light shielding layer ; and a porous layer ; characterized in that the light shielding layer covers a surface of the third optical element that is in contact with neither the first optical element nor the second optical element, the porous layer covers at least a part of the light shielding layer that is in contact with the third optical element, the porous layer has a communication hole structure, wherein the holes included in the porous layer are spatially in communication with each other, and the porous layer is arranged to spatially connect the light shielding layer and the atmosphere. a first optical element ; a second optical element ; a third optical element sandwiched between the first optical element and the second optical element, the third optical element containing resin; a light shielding layer ; and a porous layer ; characterized in that the light shielding layer covers a surface of the third optical element that is in contact with neither the first optical element nor the second optical element, the porous layer covers at least a part of the light shielding layer that is in contact with the third optical element, the porous layer has a communication hole structure, wherein the holes included in the porous layer are spatially in communication with each other, and the porous layer is arranged to spatially connect the light shielding layer and the atmosphere.
A CD19-ADC for use in a method of treating a lymphoma in a subject, said method comprising administering to a subject the CD19-ADC, wherein the CD19-ADC is administered to the subject in a tapered dosage regime comprising multiple treatment cycles wherein a starting dose of the CD19-ADC is administered in a first and second treatment cycle, and a reduced dose of the CD19-ADC is administered in a third and any subsequent treatment cycles; wherein the CD19-ADC has the chemical structure: where the Ab is a CD19 antibody comprising comprises a VH domain having the sequence of SEQ ID NO. 2 and a VL domain having the sequence of SEQ ID NO. 8, and the DAR is between 1 and 8.
Communication device for carrying out a control interaction between an operating electronics and an actuator , for example a control valve, a pump or the like, for setting a process fluid flow of a process plant, such as a chemical plant, in particular a petrochemical plant, a food-processing plant, a power plant or the like, which has control and/or regulating electronics for actuating the actuator in accordance with an actuator command, the control and/or regulating electronics being configured to carry out a predetermined function, in particular for actuating the actuator , in dependence on a predefined actuator command, such as an actuating setpoint value, the communication device comprising: a first communication interface for receiving electrical signals (S), such as actuator commands (a, b), from the operating electronics , a second communication interface for sending electrical actuator commands (b) to the actuator , an electronic permissibility checker having a data memory in which a series of permissible actuator commands (b) is stored, the permissibility checker being configured to, depending on an electrical signal (S) received by means of the first communication interface , cause the second communication interface to either send no actuator command or one of the permissible actuator commands (b) to the actuator , wherein the communication device is set up to receive operating data (d), such as valve position, control difference, control signal, actuator signature, actuator hysteresis or the like, from the actuator , wherein the permissibility checker is furthermore set up to permit and/or prevent the transmission of permissible actuator commands (b) in dependence on the operating data (d), and/or the second communication interface is set up to take account of the operating data (d) when an actuator command (b) is transmitted. a first communication interface for receiving electrical signals (S), such as actuator commands (a, b), from the operating electronics , a second communication interface for sending electrical actuator commands (b) to the actuator , an electronic permissibility checker having a data memory in which a series of permissible actuator commands (b) is stored, the permissibility checker being configured to, depending on an electrical signal (S) received by means of the first communication interface , cause the second communication interface to either send no actuator command or one of the permissible actuator commands (b) to the actuator , wherein the communication device is set up to receive operating data (d), such as valve position, control difference, control signal, actuator signature, actuator hysteresis or the like, from the actuator , wherein the permissibility checker is furthermore set up to permit and/or prevent the transmission of permissible actuator commands (b) in dependence on the operating data (d), and/or the second communication interface is set up to take account of the operating data (d) when an actuator command (b) is transmitted.