mhurhangee/patent-ind-claim-en huggingface dataset:
An actuator for a head-mounted display including an optical assembly, the actuator comprising: a movement mechanism configured to adjust a position of an optical component within the optical assembly, wherein the movement mechanism comprises a lead screw (204. 304) and a nut assembly , the nut assembly configured to translate along the lead screw based on rotation of the lead screw; a locking-release mechanism configured to modify operation of the movement mechanism upon detection of a dynamic event, wherein the locking-release mechanism includes a spring that linearly biases the nut assembly against the lead screw, and wherein modified operation of the movement mechanism includes a portion of the nut assembly being disengaged from the lead screw; and a dampening mechanism configured to control positional changes of the optical component during the dynamic event. a movement mechanism configured to adjust a position of an optical component within the optical assembly, wherein the movement mechanism comprises a lead screw (204. 304) and a nut assembly , the nut assembly configured to translate along the lead screw based on rotation of the lead screw; a locking-release mechanism configured to modify operation of the movement mechanism upon detection of a dynamic event, wherein the locking-release mechanism includes a spring that linearly biases the nut assembly against the lead screw, and wherein modified operation of the movement mechanism includes a portion of the nut assembly being disengaged from the lead screw; and a dampening mechanism configured to control positional changes of the optical component during the dynamic event.
A composition suitable for inducing gene modification at a target gene locus in a cell, comprising: 1) a compound represented by formula (I): wherein n represents an integer of 2 to 5, R represents a linear C 1-5 alkyl group, a linear C 7-11 alkenyl group, or a linear C 11 alkadienyl group, and wavy lines each independently represent a cis-type bond or a trans-type bond, or a salt thereof; 2) a structural lipid; and 3) a guide RNA or a DNA including a sequence encoding the guide RNA, and/or an RNA-guided nuclease or a nucleic acid including a sequence encoding the RNA-guided nuclease. 1) a compound represented by formula (I): wherein n represents an integer of 2 to 5, R represents a linear C 1-5 alkyl group, a linear C 7-11 alkenyl group, or a linear C 11 alkadienyl group, and wavy lines each independently represent a cis-type bond or a trans-type bond, or a salt thereof; n represents an integer of 2 to 5, R represents a linear C 1-5 alkyl group, a linear C 7-11 alkenyl group, or a linear C 11 alkadienyl group, and wavy lines each independently represent a cis-type bond or a trans-type bond, or a salt thereof; 2) a structural lipid; and 3) a guide RNA or a DNA including a sequence encoding the guide RNA, and/or an RNA-guided nuclease or a nucleic acid including a sequence encoding the RNA-guided nuclease.
A clearing limit setting device comprising: a display section configured to display, in a two-dimensional field constituted by a length and a thickness of a yarn defect as coordinate axes, a clearing limit that is a boundary line that defines whether to remove a yarn defect from a yarn; a processing section configured to, when at least one first set-point is selected among a plurality of the first set-points (NSL1 to NSL6 and T1 to T4) through which the clearing limit passes and at least one second set-point is input as a movement destination of the selected at least one first set-point, generate a clearing limit that passes through the at least one second set-point instead of the selected at least one first set-point, and cause the display section to display the newly generated clearing limit ; and a first input unit configured to accept addition of at least one third set-point when the display section displays the clearing limit that passes through the first set-points (NSL1 to NSL6 and T1 to T4), wherein the processing section is configured to generate the clearing limit that passes through the first set-points and the at least one third set-point added by the first input unit and causes the display section to display the newly generated clearing limit , wherein the first input unit is the two-dimensional field displayed on the display section . a display section configured to display, in a two-dimensional field constituted by a length and a thickness of a yarn defect as coordinate axes, a clearing limit that is a boundary line that defines whether to remove a yarn defect from a yarn; a processing section configured to, when at least one first set-point is selected among a plurality of the first set-points (NSL1 to NSL6 and T1 to T4) through which the clearing limit passes and at least one second set-point is input as a movement destination of the selected at least one first set-point, generate a clearing limit that passes through the at least one second set-point instead of the selected at least one first set-point, and cause the display section to display the newly generated clearing limit ; and a first input unit configured to accept addition of at least one third set-point when the display section displays the clearing limit that passes through the first set-points (NSL1 to NSL6 and T1 to T4), wherein the processing section is configured to generate the clearing limit that passes through the first set-points and the at least one third set-point added by the first input unit and causes the display section to display the newly generated clearing limit , wherein the first input unit is the two-dimensional field displayed on the display section .
A web detection device comprising: a light source configured to irradiate an area of a web that includes a detection target with a light beam, the area including the detection target; and characterised by an imaging means configured to photograph a photography field of view including a first field of view area (5A1) that is an area in which the light beam from the light source is specularly reflected and diffusely reflected and which includes the detection target of the web , and a second field of view area (5A2) that is an area in which the light beam from the light source is diffusely reflected and which includes the detection target of the web , wherein the detection target is detected according to an image of the photography field of view. a light source configured to irradiate an area of a web that includes a detection target with a light beam, the area including the detection target; and characterised by an imaging means configured to photograph a photography field of view including a first field of view area (5A1) that is an area in which the light beam from the light source is specularly reflected and diffusely reflected and which includes the detection target of the web , and a second field of view area (5A2) that is an area in which the light beam from the light source is diffusely reflected and which includes the detection target of the web , wherein the detection target is detected according to an image of the photography field of view.
A sensor insertion device that uses a needle for puncturing a skin on a first end side to insert a sensor into a patient's body, the sensor insertion device comprising: a main body case; a needle slider configured to grip the needle and the sensor on the first end side, the needle slider provided inside the main body case in a state of being able to slide in the insertion direction of the sensor; a disposal slider that is provided inside the main body case in a state of being able to slide in parallel with the needle slider; a biasing member that is provided between the needle slider and the disposal slider, the biasing member configured to bias the needle slider which has moved in the sensor insertion direction, in the opposite direction from the sensor insertion direction; a puncture knob configured to push the needle slider to a specific puncture position by sliding it in the sensor insertion direction in a state of being in contact with a second end side of the needle slider that is on the opposite side from the first end, the puncture knob having an insertion hole into which a rear end portion of the needle slider can be inserted; and an opening mechanism configured to put the insertion hole in a closed state when the needle slider is slid a specific length in the sensor insertion direction, and put the insertion hole in an open state in which the second end side of the needle slider has been inserted into the insertion hole by opening up the contact portion between the puncture knob and the second end side of the needle slider when the puncture operation is complete. a main body case; a needle slider configured to grip the needle and the sensor on the first end side, the needle slider provided inside the main body case in a state of being able to slide in the insertion direction of the sensor; a disposal slider that is provided inside the main body case in a state of being able to slide in parallel with the needle slider; a biasing member that is provided between the needle slider and the disposal slider, the biasing member configured to bias the needle slider which has moved in the sensor insertion direction, in the opposite direction from the sensor insertion direction; a puncture knob configured to push the needle slider to a specific puncture position by sliding it in the sensor insertion direction in a state of being in contact with a second end side of the needle slider that is on the opposite side from the first end, the puncture knob having an insertion hole into which a rear end portion of the needle slider can be inserted; and an opening mechanism configured to put the insertion hole in a closed state when the needle slider is slid a specific length in the sensor insertion direction, and put the insertion hole in an open state in which the second end side of the needle slider has been inserted into the insertion hole by opening up the contact portion between the puncture knob and the second end side of the needle slider when the puncture operation is complete.
Cookware comprising a composite of at least two layers of materials, wherein a first layer of the at least two layers of materials has a plurality of spaced-apart raised bubbles formed on its surface, defining a cooking surface of the cookware, and wherein a second layer of the at least two layers of materials is bonded to the first layer , characterized in that the composite is a selectively bonded composite, wherein the cooking surface has flat surfaces between adjacent raised bubbles and wherein a very strong bond is achieved in the areas of the flat surfaces between the adjacent raised bubbles , while the bonding between the first layer and the second layer in the areas of the said bubbles is minimal or absent, whereby a coefficient of heat conductivity is greater in said areas intermediate said bubbles than in said bubbles .
A drawer sliding system for a drawer (5a-c), comprising at least two parts being moveable relative each other and adapted for together forming a connection between the drawer (5a-c) and an associated cabinet , wherein one of said at least two parts comprises at least one sliding surface being coated with a lacquer comprising a resin, wherein said lacquer in turn is at least partly coated with a lipophilic composition coating to provide a slide layer with a lowered friction, wherein the other one of said parts is provided with at least one sliding member, the interface between the sliding surface and the at least one sliding member forming a linear plain bearing to allow for linear movement of the sliding member along the longitudinal axis of the sliding surface, wherein at least the part of said at least one sliding member being in contact with the sliding surface is made of a plastic.
Threadlike metal or metallized reinforcer, at the periphery of which is positioned a layer of metal referred to as "surface metal" (Ms) chosen from copper, nickel and copper/nickel alloys, in which said surface metal layer (Ms) is itself coated, at least in part, with at least one layer of graphene (GR, GRf), characterized in that there is grafted, to the graphene, at least one functional group which can crosslink to a polymer matrix.
Modular, tunnel like channel segment (K) of a run through cleaning device through which mass parts (M) are movable in longitudinal direction along a cleaning path (W R ) in a channel interior , which constructively defines an at least partly curvilinear course of the cleaning path (W R ), characterized in that the channel segment constitutes an enclosed portion due to the channel interior at least in circumferential direction and due to the curvilinear course of the cleaning path (W R ), a mutual attachment of neighboring mass parts (M) to face sides is changeable from a plane attachment to a punctual attachment during a movement through the channel interior . the channel segment constitutes an enclosed portion due to the channel interior at least in circumferential direction and due to the curvilinear course of the cleaning path (W R ), a mutual attachment of neighboring mass parts (M) to face sides is changeable from a plane attachment to a punctual attachment during a movement through the channel interior .
A device comprising: a miniaturized magnetic resonance system comprising a) at least one sensing element providing a sensing and/or excitation region, and b) an active element configured to transmit an excitation signal to the at least one sensing element and/or to receive an input signal from said least one sensing element and including electronics; an enclosure defining an enclosing volume and holding a liquid; and a hosting microstructure defining a cell culture chamber having a volume comprised between 0.1 nL and 1 μL; characterized in that said cell culture chamber is comprised within said enclosure and in contact with said liquid in said enclosure ; the device comprises a passivation-binding layer covering at least one part of said system and said chamber , acting as an isolating shield material preventing physical, chemical and/or electrical connections between electrical components and liquid media; and said sensing element and said active element are co-integrated, adjacent in a plane or stacked vertically, on a same printed circuit board and said culture chamber is located on top of said sensing element . a miniaturized magnetic resonance system comprising a) at least one sensing element providing a sensing and/or excitation region, and b) an active element configured to transmit an excitation signal to the at least one sensing element and/or to receive an input signal from said least one sensing element and including electronics; a) at least one sensing element providing a sensing and/or excitation region, and b) an active element configured to transmit an excitation signal to the at least one sensing element and/or to receive an input signal from said least one sensing element and including electronics; an enclosure defining an enclosing volume and holding a liquid; and a hosting microstructure defining a cell culture chamber having a volume comprised between 0.1 nL and 1 μL; characterized in that said cell culture chamber is comprised within said enclosure and in contact with said liquid in said enclosure ; the device comprises a passivation-binding layer covering at least one part of said system and said chamber , acting as an isolating shield material preventing physical, chemical and/or electrical connections between electrical components and liquid media; and said sensing element and said active element are co-integrated, adjacent in a plane or stacked vertically, on a same printed circuit board and said culture chamber is located on top of said sensing element .
A force sensor comprising: a cylindrical main body ; a cylindrical movable body movable with respect to the main body and including at least three circular openings in the outer circumference thereof; a strain body fixed to the main body and the movable body and deformable according to the movement of the movable body ; strain sensors provided on the strain body ; a first stopper arranged inside each of the openings and including a first outer circumferential surface including a first outer diameter (R14) less than a diameter of the opening ; a first fixing member configured to fix each of the first stoppers to the main body ; and sealing members configured to cover at least the openings and a movable part between the main body and the movable body . a cylindrical main body ; a cylindrical movable body movable with respect to the main body and including at least three circular openings in the outer circumference thereof; a strain body fixed to the main body and the movable body and deformable according to the movement of the movable body ; strain sensors provided on the strain body ; a first stopper arranged inside each of the openings and including a first outer circumferential surface including a first outer diameter (R14) less than a diameter of the opening ; a first fixing member configured to fix each of the first stoppers to the main body ; and sealing members configured to cover at least the openings and a movable part between the main body and the movable body .
A flow distribution assembly configured to be mounted into a rack, comprising: a filter housing having an air inlet portion; a first elongated duct fluidly coupled to a first outlet portion of the filter housing and having a first plurality of openings defined on a lower surface of the first elongated duct ; and a second elongated duct fluidly coupled to a second outlet portion of the filter housing adjacent to the first outlet portion and having a second plurality of openings defined on a lower surface of the second elongated duct ; characterized in that the first elongated duct and second elongated duct extend adjacent to one another from the filter housing such that the first and second elongated ducts are positionable upon a rack to extend along the rack ; wherein, when the flow distribution assembly is mounted into a rack, the filter housing is configured so that air passing through the air inlet portion is received into the filter housing in a downward direction and the air passing through the first and second outlet portions is received into the first and second elongated ducts in a horizontal direction. a filter housing having an air inlet portion; a first elongated duct fluidly coupled to a first outlet portion of the filter housing and having a first plurality of openings defined on a lower surface of the first elongated duct ; and a second elongated duct fluidly coupled to a second outlet portion of the filter housing adjacent to the first outlet portion and having a second plurality of openings defined on a lower surface of the second elongated duct ; characterized in that the first elongated duct and second elongated duct extend adjacent to one another from the filter housing such that the first and second elongated ducts are positionable upon a rack to extend along the rack ; wherein, when the flow distribution assembly is mounted into a rack, the filter housing is configured so that air passing through the air inlet portion is received into the filter housing in a downward direction and the air passing through the first and second outlet portions is received into the first and second elongated ducts in a horizontal direction.
An in-vehicle device comprising: a monitoring unit that monitors a state of an object on the basis of an output of a sensor mounted in a vehicle; a generation unit that generates process information for causing the vehicle to execute a process in accordance with the state; a control unit that causes an output device to output cause information indicating at least one of the object or the state which is a cause of the process; and a reception unit that receives an input for changing the process due to the cause indicated by the cause information; wherein, the reception unit receives an input showing a post-change recognition result for changing a recognition result of at least one of the object or the state which is a cause of the process, and wherein, on the basis of the post-change recognition result, the generation unit generates the process information. a monitoring unit that monitors a state of an object on the basis of an output of a sensor mounted in a vehicle; a generation unit that generates process information for causing the vehicle to execute a process in accordance with the state; a control unit that causes an output device to output cause information indicating at least one of the object or the state which is a cause of the process; and a reception unit that receives an input for changing the process due to the cause indicated by the cause information; wherein, the reception unit receives an input showing a post-change recognition result for changing a recognition result of at least one of the object or the state which is a cause of the process, and wherein, on the basis of the post-change recognition result, the generation unit generates the process information.
A method, comprising: receiving, by processing circuitry of a virtual reality, VR, server configured to produce a VR environment, a first request from a first user to perform a first manipulation of an object in the VR environment from a current state to a first state and a second request from a second user to perform a second manipulation of the object in the VR environment from the current state to a second state; generating a conflict state indicating a conflict between the first request and the second request; providing the first user with an image of the object after performing the first manipulation; providing the second user with an image of the object after performing the second manipulation; resolving the conflict to produce a resolved condition indicating a grant of the first request and a denial of the second request; and in response to producing the resolved condition, providing the second user with an image of a manipulation of the object to the first state. receiving, by processing circuitry of a virtual reality, VR, server configured to produce a VR environment, a first request from a first user to perform a first manipulation of an object in the VR environment from a current state to a first state and a second request from a second user to perform a second manipulation of the object in the VR environment from the current state to a second state; generating a conflict state indicating a conflict between the first request and the second request; providing the first user with an image of the object after performing the first manipulation; providing the second user with an image of the object after performing the second manipulation; resolving the conflict to produce a resolved condition indicating a grant of the first request and a denial of the second request; and in response to producing the resolved condition, providing the second user with an image of a manipulation of the object to the first state.
Agricultural terminal for controlling an agricultural machine , the terminal having a touch-sensitive screen , characterized in that the terminal has at least one proximity sensor for sensing approaching objects , and in that the terminal is configured to respond to approaching objects, in particular a hand or fingers, by displaying or showing in greater size operating elements for setting setting parameters, in particular an adaptation of the application rate or a switching of partial widths, of the agricultural machine .