mhurhangee/patent-ind-claim-en huggingface dataset:
A compound that inhibits VEGF-B signaling for use in reducing an effect of stroke in a subject by inhibiting VEGF-B signaling, wherein the effect of stroke comprises one or more of infarct size, hemorrhage score, hemorrhage incidence, likelihood of lethal hemorrhage, brain edema and/or blood brain barrier breakdown or leakage, and wherein the compound that inhibits VEGF-B signaling is: (i) a protein comprising an antibody variable region that binds to or specifically binds to VEGF-B and neutralizes VEGF-B signaling; or (ii) a nucleic acid that inhibits or prevents expression of VEGF-B. (i) a protein comprising an antibody variable region that binds to or specifically binds to VEGF-B and neutralizes VEGF-B signaling; or (ii) a nucleic acid that inhibits or prevents expression of VEGF-B.
A window processing system for use in fabricating window frames or sashes comprising: a window frame support or sash support; an articulating arm coupled to a base positioned with respect to the window frame support or sash support, the articulating arm having a plurality of members and arms to allow movement of a tool support fixture about multiple axes defined by the articulating arm ; and the tool support fixture assembly coupled to an outermost member relative to the base of said plurality of members the tool support fixture assembly having a plurality of tools for performing cleaning operations on a window frame or sash during the cleaning operations, further comprising a tool fixture arrangement having a body and plurality of removable legs for coupling to a tool of the plurality of tools the plurality of removable legs each having an arcuate recess for quick attachment to and removal from an arcuate guide attached to said body and wherein each of said plurality of removable legs of said tool support fixture assembly further comprises at least one tightening slit for facilitating removal of said plurality of removable legs from said body said at least one tightening slit extending into communication with each of the at least one arcuate recess formed in each respective removable leg . a window frame support or sash support; an articulating arm coupled to a base positioned with respect to the window frame support or sash support, the articulating arm having a plurality of members and arms to allow movement of a tool support fixture about multiple axes defined by the articulating arm ; and the tool support fixture assembly coupled to an outermost member relative to the base of said plurality of members the tool support fixture assembly having a plurality of tools for performing cleaning operations on a window frame or sash during the cleaning operations, further comprising a tool fixture arrangement having a body and plurality of removable legs for coupling to a tool of the plurality of tools the plurality of removable legs each having an arcuate recess for quick attachment to and removal from an arcuate guide attached to said body and wherein each of said plurality of removable legs of said tool support fixture assembly further comprises at least one tightening slit for facilitating removal of said plurality of removable legs from said body said at least one tightening slit extending into communication with each of the at least one arcuate recess formed in each respective removable leg .
A single-fill syringe for multi-component materials, comprising a mixer housing , a mixing element , a multi-component cartridge and a mixing head , the mixing head being arranged at least partly within the mixer housing and adjacent to the multi-component cartridge , wherein the mixing head is arranged moveable in an axial direction of the syringe between at least two positions, the at least two positions comprising a sealed position and a dispensing position, wherein the axial movement of the mixing head is brought about by a rotation of at least a part of the mixer housing (12; 12b) relative to the multi-component cartridge , and wherein the mixing head is axially displaced in a direction opposite to a dispensing direction (A) on a displacement of the mixing head from the sealed position into the dispensing position, characterized by the activation of the syringe taking place by the rotation of the at least part of the mixer housing (12; 12b) relative to the multi-component cartridge to displace at least a part of the mixer housing and the mixing head from the sealed position into the dispensing position, and with at least a part of a base of the mixing head being configured as a seal adapted for sealing outlets of the multi-component cartridge when the mixing head is in the sealed position.
Aircraft gas turbine engine having an engine cowling which surrounds a core engine in a tubular manner, at least one inflow-side part of the engine cowling being of tubular or partially tubular configuration and being displaced telescopically counter to the flow direction, the displaceable part comprising the outer engine cowling as far as a thrust reversal element and the inner engine cowling as far as a bypass flow fan housing , the inner engine cowling comprising a component for acoustic damping and a transition region between the component and the bypass flow fan housing , the transition region being formed by way of a region of the bypass flow fan housing , which region is extended counter to the flow direction, and by way of an extension of the component , the extended region having a radially outwardly directed lip , the extension being situated radially within the extended region , and a seal being arranged between the extended region and the extension , characterized in that a radially outer face of the extension is configured with a spherical contour , in order to form a gimballed, joint-like construction.
A method comprising; capturing, via a first sensor of a computing device, images of an environment that the computing device is currently in; detecting whether there are faces captured in the images; the method characterized by comprising: determining, by the computing device, a distance of any detected faces from the computing device; adjusting, by the computing device, a setting on the computing device based on the distance of the faces from the computing device; wherein adjusting the setting comprises adjusting one or more of a brightness of a screen of the computing device, a size of text on the screen and a volume of speakers of the computing device. capturing, via a first sensor of a computing device, images of an environment that the computing device is currently in; detecting whether there are faces captured in the images; determining, by the computing device, a distance of any detected faces from the computing device; adjusting, by the computing device, a setting on the computing device based on the distance of the faces from the computing device; wherein adjusting the setting comprises adjusting one or more of a brightness of a screen of the computing device, a size of text on the screen and a volume of speakers of the computing device.
A reception timing configuration method performed by a first network side device for coordinated multipoint, CoMP, transmission where two geographically separated transmission points are configured to transmit downlink data to a terminal device in a coordinated manner, wherein the first network side device is a serving network side device of the terminal device and adapted to communicate with the terminal via an air interface, and wherein said two geographically separated transmission points are said first network side device and a second network side device, or a first transmission point and a second transmission point in a cell covered by the first network side device, or two further terminals, comprising: receiving a capability parameter sent by the terminal device, wherein the capability parameter is used to indicate that the terminal device supports a plurality of reception timings, configuring a reception timing parameter for the terminal device based on the capability parameter for a CoMP transmission of data from said two geographically separated transmission points to said terminal, wherein the reception timing parameter comprises two timing points respectively corresponding to said two geographically separated transmission points; and sending indication information to the terminal device, wherein the indication information is used to indicate the reception timing parameter. receiving a capability parameter sent by the terminal device, wherein the capability parameter is used to indicate that the terminal device supports a plurality of reception timings, configuring a reception timing parameter for the terminal device based on the capability parameter for a CoMP transmission of data from said two geographically separated transmission points to said terminal, wherein the reception timing parameter comprises two timing points respectively corresponding to said two geographically separated transmission points; and sending indication information to the terminal device, wherein the indication information is used to indicate the reception timing parameter.
A process for the manufacture of a phytate depleted product from a plant material derived from legumes comprising the steps of: - providing a disrupted plant material comprising <10 %(w/w) starch and <10 %(w/w) oil/lipids; - simultaneously adjusting the pH of the disrupted plant material to a value of pH in the range of 1.5 to 2.5 and heating the disrupted plant material to a temperature in the range of 50°C to 80°C to provide a heated, acidic suspension; - isolating the product from the heated, acidic suspension. - providing a disrupted plant material comprising <10 %(w/w) starch and <10 %(w/w) oil/lipids; - simultaneously adjusting the pH of the disrupted plant material to a value of pH in the range of 1.5 to 2.5 and heating the disrupted plant material to a temperature in the range of 50°C to 80°C to provide a heated, acidic suspension; - isolating the product from the heated, acidic suspension.
A unit for use with an image forming apparatus, comprising: a rotatable member ; a blade member including a blade (11a1) that is contacted to said rotatable member and extends in an axial direction of said rotatable member and a supporting portion (11a2) that supports said blade (11a1) and extends in the axial direction; and a frame , formed of a resin material, for supporting said blade member ; characterized in that a seal member formed, by injection molding, on an end portion of said frame in the axial direction, configured to be contacted to a portion of said blade member , opposite from a portion where said blade member is contacted to said rotatable member , so as to seal a gap between said blade member and said frame , wherein said seal member extends in a direction so as to contact both of a surface of said blade (11a1) and a surface (11a2a) of said supporting portion (11a2), wherein said blade has a corner portion (11a3) formed as a stepped portion at a boundary between itself and said supporting portion (11a2), and said seal member further includes a first contact portion contacted to said blade (11a1), a second contact portion contacted to said supporting portion (11a2), and a third contact portion contacted to said corner portion (11a3) for connecting said first contact portion and said second contact portion , and said first contact portion and said second contact portion are different in height in a state that said blade member is not attached to the frame . a rotatable member ; a blade member including a blade (11a1) that is contacted to said rotatable member and extends in an axial direction of said rotatable member and a supporting portion (11a2) that supports said blade (11a1) and extends in the axial direction; and a frame , formed of a resin material, for supporting said blade member ; characterized in that a seal member formed, by injection molding, on an end portion of said frame in the axial direction, configured to be contacted to a portion of said blade member , opposite from a portion where said blade member is contacted to said rotatable member , so as to seal a gap between said blade member and said frame , wherein said seal member extends in a direction so as to contact both of a surface of said blade (11a1) and a surface (11a2a) of said supporting portion (11a2), wherein said blade has a corner portion (11a3) formed as a stepped portion at a boundary between itself and said supporting portion (11a2), and said seal member further includes a first contact portion contacted to said blade (11a1), a second contact portion contacted to said supporting portion (11a2), and a third contact portion contacted to said corner portion (11a3) for connecting said first contact portion and said second contact portion , and said first contact portion and said second contact portion are different in height in a state that said blade member is not attached to the frame .
Sensor for triggering an action on a door (P) of a motor vehicle comprising: - a first capacitance-measuring electrode (E1) defining a first detection zone (Z1) and a second capacitance-measuring electrode (E2) defining a second detection zone (Z2), said first electrode (E1) and said second electrode (E2) being arranged so that said first zone (Z1) and said second zone (Z2) are offset in space, - a processing unit (UT) connected to said first electrode (E1) and to said second electrode (E2) to detect variations of capacitance of the two electrodes (E1, E2) and to generate a triggering action on the door (P) of the motor vehicle as a function of the signatures (CE1, CE2) of the capacitance variations of each of the two electrodes (E1, E2) due to the approach of a hand to the two detection zones (Z1, Z2), characterized in that each electrode (E1, E2) is connected to the processing unit (UT) by means of a single connection (C) connected to the processing unit (UT), said single connection (C) alternately forming a measurement input (E) suitable for measuring the capacitance variation of the electrode or a command output (S) suitable for controlling the potential of the corresponding electrode, the single connections of the processing unit (UT) associated with the two electrodes (E1, E2) being also suitable for: - setting the potential of the first electrode (E1) at the same level as that of the second electrode (E2), or - setting the potential of the second electrode (E2) at the same level as that of the first electrode (E1), a setting of the potential being ensured periodically and alternately between the first electrode (E1) and the second electrode (E2). - a first capacitance-measuring electrode (E1) defining a first detection zone (Z1) and a second capacitance-measuring electrode (E2) defining a second detection zone (Z2), said first electrode (E1) and said second electrode (E2) being arranged so that said first zone (Z1) and said second zone (Z2) are offset in space, - a processing unit (UT) connected to said first electrode (E1) and to said second electrode (E2) to detect variations of capacitance of the two electrodes (E1, E2) and to generate a triggering action on the door (P) of the motor vehicle as a function of the signatures (CE1, CE2) of the capacitance variations of each of the two electrodes (E1, E2) due to the approach of a hand to the two detection zones (Z1, Z2), - setting the potential of the first electrode (E1) at the same level as that of the second electrode (E2), or - setting the potential of the second electrode (E2) at the same level as that of the first electrode (E1),
An integrated aircraft galley structure comprising: a bottom portion including a storage area for serving carts; an upper portion including a second storage area; and a service module between the upper portion and the bottom portion , the service module comprising: plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules for controlling each galley insert, the galley insert modules being received in the service module in designated slots ; an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by : a galley power and control unit for controlling each of the insert power and control units ; and an AC distribution unit for distributing power to the insert power and control units and the galley power and control unit . a bottom portion including a storage area for serving carts; an upper portion including a second storage area; and a service module between the upper portion and the bottom portion , the service module comprising: plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules for controlling each galley insert, the galley insert modules being received in the service module in designated slots ; an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by : plurality of galley inserts including at least one oven and at least one refrigeration unit a plurality of bays formed in the service module and sized to receive the plurality of galley inserts; a human machine interface for controlling all of the galley inserts; and a plurality of galley insert modules for controlling each galley insert, the galley insert modules being received in the service module in designated slots ; an insert power and control unit for each galley insert for controlling power to said insert; the integrated aircraft galley structure being characterized by : a galley power and control unit for controlling each of the insert power and control units ; and an AC distribution unit for distributing power to the insert power and control units and the galley power and control unit .
A robot , comprising: a frame ; a first wheel coupled to the frame; a first braking unit , coupled to the frame, and comprising a first brake pad , and a first spring that urges the first brake pad towards a first braking surface for the first wheel; characterized in that the robot further comprises: an electromagnet ; a trigger , pivotally coupled relative to the electromagnet, and comprising a magnetic surface ; and a cable , coupled to the first braking unit and routed to the trigger, wherein when the electromagnet is energized, the trigger is retained against the electromagnet by the magnetic surface and pulls the cable which pulls the first brake pad away from the first braking surface, and wherein when the electromagnet is de-energized, the trigger is released from the electromagnet as the first spring is allowed to extend which pushes the first brake pad against the first braking surface and pulls the cable which pulls the trigger pivotally away from the electromagnet. a frame ; a first wheel coupled to the frame; a first braking unit , coupled to the frame, and comprising a first brake pad , and a first spring that urges the first brake pad towards a first braking surface for the first wheel; characterized in that the robot further comprises: an electromagnet ; a trigger , pivotally coupled relative to the electromagnet, and comprising a magnetic surface ; and a cable , coupled to the first braking unit and routed to the trigger, wherein when the electromagnet is energized, the trigger is retained against the electromagnet by the magnetic surface and pulls the cable which pulls the first brake pad away from the first braking surface, and wherein when the electromagnet is de-energized, the trigger is released from the electromagnet as the first spring is allowed to extend which pushes the first brake pad against the first braking surface and pulls the cable which pulls the trigger pivotally away from the electromagnet. an electromagnet ; a trigger , pivotally coupled relative to the electromagnet, and comprising a magnetic surface ; and a cable , coupled to the first braking unit and routed to the trigger, wherein when the electromagnet is energized, the trigger is retained against the electromagnet by the magnetic surface and pulls the cable which pulls the first brake pad away from the first braking surface, and wherein when the electromagnet is de-energized, the trigger is released from the electromagnet as the first spring is allowed to extend which pushes the first brake pad against the first braking surface and pulls the cable which pulls the trigger pivotally away from the electromagnet.
A method of manufacturing a printing blanket , the printing blanket comprising an elastic body , and a sheet bonded to a curved surface of the elastic body , the printing blanket being configured to press a surface of the sheet against a surface to be printed, to thereby perform printing, the method comprising: mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet ; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body ; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive , characterized in that the method further comprises fixing the sheet at a periphery of a region of the sheet to be bonded to the elastic body and in that during pressing the sheet is brought into close contact with the elastic body through intermediation of the adhesive while stretching the sheet along the curved surface of the elastic body . the printing blanket comprising an elastic body , and a sheet bonded to a curved surface of the elastic body , the printing blanket being configured to press a surface of the sheet against a surface to be printed, to thereby perform printing, the method comprising: mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet ; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body ; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive , mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet ; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body ; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive ,