mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate comprising a surface comprising a silane covalently bound to a functionalized molecule through reaction of the functionalized molecule with a surface-bound organosilane compound; wherein the surface-bound organosilane compound comprises a silicon atom, a first unsaturated moieity, and a linker joining the silicon atom to the first unsaturated moiety; wherein the first unsaturated moieity is a cycloalkene or a heteronorbornene, or an optionally substituted variant thereof. wherein the surface-bound organosilane compound comprises a silicon atom, a first unsaturated moieity, and a linker joining the silicon atom to the first unsaturated moiety; wherein the first unsaturated moieity is a cycloalkene or a heteronorbornene, or an optionally substituted variant thereof.
A chimeric antigen receptor-modified immune effector cell that expresses a PD-L1 blocking agent, characterized in that the PD-L1 blocking agent is chosen from: soluble PD-1; a fusion peptide of soluble PD-1 and CH3 domain of hIgG4e1-Fc; or a fusion peptide of soluble PD-1 and hIgG4e1-Fc. soluble PD-1; a fusion peptide of soluble PD-1 and CH3 domain of hIgG4e1-Fc; or a fusion peptide of soluble PD-1 and hIgG4e1-Fc.
A method of controlling a planting depth actuator for a planter row unit using the planting depth control system according to any of the claims 7-11, the planter row unit comprising an opener , a gauge wheel mounted on a gauge wheel arm to allow relative movement between the gauge wheel and the opener , an arm contact member arranged to contact the gauge wheel arm , the planting depth actuator being configured to position the arm contact member along a path of movement through an extent of travel and that contacts a gauge wheel arm to change a relative position of the gauge wheel relative to the opener on the planter row unit , the method comprising: controlling the planting depth actuator to position the arm contact member at a first known position along the extent of travel and out of contact with the gauge wheel arm ; detecting that the planter row unit is positioned so the gauge wheel and the opener are in a known position relative to one another; controlling the planting depth actuator to move the arm contact member from the first known position to a second position in which the arm contact member is in contact with the gauge wheel arm ; identifying how far the arm contact member moved along the extent of travel from the first known position to the second position, to identify the second position as a first calibration point; and adjusting a control curve, used to position the arm contact member to control planting depth of the planter row unit , based on the first calibration point. controlling the planting depth actuator to position the arm contact member at a first known position along the extent of travel and out of contact with the gauge wheel arm ; detecting that the planter row unit is positioned so the gauge wheel and the opener are in a known position relative to one another; controlling the planting depth actuator to move the arm contact member from the first known position to a second position in which the arm contact member is in contact with the gauge wheel arm ; identifying how far the arm contact member moved along the extent of travel from the first known position to the second position, to identify the second position as a first calibration point; and adjusting a control curve, used to position the arm contact member to control planting depth of the planter row unit , based on the first calibration point.
Immersion system (S) for the cogeneration of energy for supplying small-sized peripheral utilities comprising: at least one thermal engine suitable to be supplied through a fuel for the production of mechanical energy, at least one alternator (A), operatively connected to said thermal engine and suitable to receive in input said mechanical energy and to provide electrical energy in output for supplying said peripheral utilities, an outer container in which said at least one thermal engine and at least one alternator (A) are housed, said system (S) being characterized in that said outer container comprises an inner tank completely or partially filled with a fluid (F) in which said thermal engine and alternator (A) are fully or partially immersed, and an outer tank to which said inner tank is coupled, wherein said inner tank comprises an energy recovery circuit of the exhaust gas generated by the internal combustion of said thermal engine , said energy recovery circuit comprising a first stage comprising an outer wall and an interspace surrounding a discharge collector and a primary exhaust pipe of said thermal engine ; a second stage comprising a catalyst connected to an expander shaped like a Venturi tube positioned downstream of the catalyst , the Venturi tube having a first part with a first cross section, a restriction and an end part with an increased cross section; a third stage comprising a double chamber with a primary silencer; and a fourth stage comprising an expansion and condensation chamber and a secondary silencer . at least one thermal engine suitable to be supplied through a fuel for the production of mechanical energy, at least one alternator (A), operatively connected to said thermal engine and suitable to receive in input said mechanical energy and to provide electrical energy in output for supplying said peripheral utilities, an outer container in which said at least one thermal engine and at least one alternator (A) are housed, said system (S) being characterized in that said outer container comprises an inner tank completely or partially filled with a fluid (F) in which said thermal engine and alternator (A) are fully or partially immersed, and an outer tank to which said inner tank is coupled, wherein said inner tank comprises an energy recovery circuit of the exhaust gas generated by the internal combustion of said thermal engine , said energy recovery circuit comprising a first stage comprising an outer wall and an interspace surrounding a discharge collector and a primary exhaust pipe of said thermal engine ; a second stage comprising a catalyst connected to an expander shaped like a Venturi tube positioned downstream of the catalyst , the Venturi tube having a first part with a first cross section, a restriction and an end part with an increased cross section; a third stage comprising a double chamber with a primary silencer; and a fourth stage comprising an expansion and condensation chamber and a secondary silencer .
A cleaning robot comprising a body provided with a dust box , a water tank , a cleaning unit, a water outlet mechanism and a water discharge pipeline, wherein the cleaning unit is disposed at a bottom of the body, the water outlet mechanism outputs liquid in the water tank through the water discharge pipeline, characterized in that the water discharge pipeline is independently disposed outside the water tank, and the water discharge pipeline is at least partially located directly below the dust box.
A swivel for transfer of high pressure oil and/or gas_across a rotary interface around a swivel rotation axis (R) between an incoming fluid line (F) and an outgoing product piping (P), the swivel comprising a fixed annular element and a rotating annular element , each arranged around a common rotation axis and having a substantially equal diameter; one selected element from the fixed annular element and the rotating annular element comprising an annular disk being provided with a continuous and circular toroidal cavity in a first of its circular end surfaces, and the other selected element from the fixed annular element and the rotating annular element being arranged with a flat circular end surface that is adjacent to and in close proximity above said first circular end surface of said annular disk so as to close the toroidal cavity and form a toroidal chamber within the annular disk, the rotary interface being formed by the flat circular end surface of the other selected element and the adjacent first circular surface of the one selected element, the rotary interface being perpendicular to the common rotation axis, the fixed annular element comprises an inner wall and an outer wall ; the inner wall at one end arranged at an inner circumference of the annular disk , and the outer wall at one end arranged at an outer circumference of the fixed annular disk; characterized in that the inner and outer walls each extending in an axial direction parallel to the rotation axis, towards the rotating annular element so as to form a "U-shaped" fixed annular element, and the rotary interface between the rotating annular element and the fixed annular element is arranged inbetween the inner and outer walls of the fixed annular element.
Connector shell comprising a connector cover and a cable-guiding sleeve comprising a curved conduit , the cover being adapted to be mounted at the rear of a connector , wherein the cover and the cable-guiding sleeve are made up of at least two separate elements, wherein the cable-guiding sleeve is mounted on the cover so as to be rotatable about an axis of rotation (A) essentially perpendicular to a rear face of the connector , and wherein the cable-guiding sleeve and the cover comprise means for blocking the rotation of the cable-guiding sleeve on the cover in at least two different pre-set angular positions about the axis of rotation (A), these blocking means comprising shapes that engage with each other in a complementary way, and that are adapted to release each other and allow the passage from one angular position to the next, characterized - in that the cover comprises a neck having a wall wherein two circularly arcuate apertures are formed, - in that the blocking means comprise at least two notches formed in the cable-guiding sleeve , and a blocking tab extending, in each of the circularly arcuate apertures , between a fixed end connected to the wall of the neck , on one edge of a circularly arcuate aperture and a free end, the free end of each blocking tab being equipped with a tooth adapted to interact with each of these notches , the tooth being elastically connected by the blocking tab to the cover . - in that the cover comprises a neck having a wall wherein two circularly arcuate apertures are formed, - in that the blocking means comprise at least two notches formed in the cable-guiding sleeve , and a blocking tab extending, in each of the circularly arcuate apertures , between a fixed end connected to the wall of the neck , on one edge of a circularly arcuate aperture and a free end, the free end of each blocking tab being equipped with a tooth adapted to interact with each of these notches , the tooth being elastically connected by the blocking tab to the cover .
An image decoding device which decodes a predictive-encoded bit stream to acquire a moving image signal, the bit stream being generated by dividing a frame of the moving image signal into blocks (Ba, Bb, Bx), the image decoding device comprising: a prediction unit for dividing each block into one or more prediction regions according to a block division pattern (mc_mode0 - mc_mode7) corresponding to a motion prediction block dividing mode and performing motion prediction of a target block (Bx) by allocating a motion vector to each divided region according to the motion prediction block dividing mode; a variable length decoding unit for decoding the motion prediction block dividing mode based on a context model ; characterized in that the variable length decoding unit is configured to use both the motion prediction block dividing mode (m(Ba)) of the Block (Ba) on the left of the target block (Bx) within the same frame and the motion prediction block dividing mode (m(Bb)) of the block (Bb) above the target block (Bx) within the same frame for the determination of the context model . a prediction unit for dividing each block into one or more prediction regions according to a block division pattern (mc_mode0 - mc_mode7) corresponding to a motion prediction block dividing mode and performing motion prediction of a target block (Bx) by allocating a motion vector to each divided region according to the motion prediction block dividing mode; a variable length decoding unit for decoding the motion prediction block dividing mode based on a context model ; characterized in that the variable length decoding unit is configured to use both the motion prediction block dividing mode (m(Ba)) of the Block (Ba) on the left of the target block (Bx) within the same frame and the motion prediction block dividing mode (m(Bb)) of the block (Bb) above the target block (Bx) within the same frame for the determination of the context model .
A method for manufacturing a unit cell , the method comprising: a step of continuously conveying and supplying, in a longitudinal direction, a lower separator which is located at a relatively lower position; a step of applying an adhesive (A) to a portion of a top surface of the lower separator ; a step of mounting, on the lower separator , one electrode of a negative electrode or a positive electrode which is cut into a predetermined size and located on one side of the lower separator ; a step of continuously conveying and supplying an upper separator which is located at a relatively upper position; and a step of applying an adhesive (A) to a portion of one surface of the upper separator , wherein the upper separator is supplied from the upper side in a direction perpendicular to a traveling direction of the lower separator , and is horizontally conveyed while the adhesive (A) is applied so that the adhesive (A) is applied vertically from the upper side, and wherein the upper separator is stacked on the electrode such that one surface of the upper separator on which the adhesive (A) has been applied is placed on a top surface of the electrode . a step of applying an adhesive (A) to a portion of a top surface of the lower separator ; a step of mounting, on the lower separator , one electrode of a negative electrode or a positive electrode which is cut into a predetermined size and located on one side of the lower separator ; a step of continuously conveying and supplying an upper separator which is located at a relatively upper position; and a step of applying an adhesive (A) to a portion of one surface of the upper separator , wherein the upper separator is supplied from the upper side in a direction perpendicular to a traveling direction of the lower separator , and is horizontally conveyed while the adhesive (A) is applied so that the adhesive (A) is applied vertically from the upper side, and wherein the upper separator is stacked on the electrode such that one surface of the upper separator on which the adhesive (A) has been applied is placed on a top surface of the electrode .
An electronic device having at least two displays, the electronic device comprising: a primary display housed in a first housing ; a secondary display housed in a second housing ; a hinge coupling the first housing to the second housing; a user facing camera housed in the first housing to capture image data of a user of the electronic device, the user facing camera configured with a head position tracking sensor and an eye tracking system , wherein the image data describes a head position of the user tracked by head position tracking sensor, and eye gaze of the user tracked by the eye tracking system; user tracking logic to determine, based on the image data and sensor data describing a user action, that a user of the electronic device is engaged with or about to engage with the secondary display; and reconfiguration logic to reconfigure at least one of the primary display and the secondary display in response to the determination, wherein the second housing includes at least one palm detection area to generate the sensor data to determine a presence of user's palm or palms; F H the device being characterized by : if a presence of the user's palm or palms is detected resting on the secondary display, the device is configured to not use the eye tracking system to track the eye gaze of the user, and to use the head position tracking sensor to only track the head position of the user to determine the user's intent. a primary display housed in a first housing ; a secondary display housed in a second housing ; a hinge coupling the first housing to the second housing; a user facing camera housed in the first housing to capture image data of a user of the electronic device, the user facing camera configured with a head position tracking sensor and an eye tracking system , wherein the image data describes a head position of the user tracked by head position tracking sensor, and eye gaze of the user tracked by the eye tracking system; user tracking logic to determine, based on the image data and sensor data describing a user action, that a user of the electronic device is engaged with or about to engage with the secondary display; and reconfiguration logic to reconfigure at least one of the primary display and the secondary display in response to the determination, wherein the second housing includes at least one palm detection area to generate the sensor data to determine a presence of user's palm or palms; F H
A method for transferring data between a first computing device and a second computing device , the method comprising: establishing (210; 310) a communication session between the first computing device and the second computing device using a first communication protocol ; in response to a request from the second computing device, the request being a request for creation of a virtual memory object of a given size, creating (230; 320), by the first computing device, a virtual memory object on the first computing device, the size of the virtual memory object corresponding to the requested size; mapping and binding, by the first computing device, the virtual memory object to one or more physical memory regions resident on the first computing device; generating (240; 330), by the first computing device, a path to the virtual memory object; transmitting (250; 340) the path to the second computing device using the communication session; and writing data (260; 350) directly to the one or more physical memory regions of the first computing device associated with the virtual memory object using the virtual memory object in response to a file system command communicated by the second computing device, wherein the file system command comprises an open command that utilizes a pointer to access the memory blocks that are bound to the virtual memory object to directly access the memory of the first computing device using a second communication protocol. establishing (210; 310) a communication session between the first computing device and the second computing device using a first communication protocol ; in response to a request from the second computing device, the request being a request for creation of a virtual memory object of a given size, creating (230; 320), by the first computing device, a virtual memory object on the first computing device, the size of the virtual memory object corresponding to the requested size; mapping and binding, by the first computing device, the virtual memory object to one or more physical memory regions resident on the first computing device; generating (240; 330), by the first computing device, a path to the virtual memory object; transmitting (250; 340) the path to the second computing device using the communication session; and writing data (260; 350) directly to the one or more physical memory regions of the first computing device associated with the virtual memory object using the virtual memory object in response to a file system command communicated by the second computing device, wherein the file system command comprises an open command that utilizes a pointer to access the memory blocks that are bound to the virtual memory object to directly access the memory of the first computing device using a second communication protocol.
A voltage limiter with overvoltage protection, which comprises an insulating shell , closed from the top by an electrically and thermally conductive first contact plate provided with a first connecting point and from the bottom by an electrically and thermally conductive second contact plate provided with a second connecting point , where two triggering semiconductor elements oriented in opposing directions and a protection member are connected in parallel and are located inside the insulation shell , the protection member consisting of a varistor or more varistors connected in parallel, where the protection member is located between two thermally and electrically conductive inner plates , wherein the semiconductor elements are interconnected with an electronic control device and connecting points via auxiliary lines, and where the voltage limiter is equipped with a compressive construction for mutual clamping and electrical interconnection of individual parts characterised in that the first triggering semiconductor element is located between the electrically and thermally conductive first inner plate , which is in contact with its cathode , and the electrically and thermally conductive first contact plate , which is in contact with its anode , and the second triggering semiconductor element located between the thermally and electrically conductive second inner plate , which is in contact with its cathode , and the electrically and thermally conductive second contact plate , which is in contact with its anode , wherein the electrically and thermally conductive first contact plate and the thermally and electrically conductive second inner plate are pushed against each other via the first triggering semiconductor element , the thermally and electrically conductive first inner plate and the protection member at least by two electrically conductive first thrust members oriented perpendicularly to the X-axis, electrically insulated from the thermally and electrically conductive first inner plate by first insulating shells , wherein the electrically and thermally conductive first contact plate and the thermally and electrically conductive second inner plate are electrically interconnected, and the electrically and thermally conductive second contact plate and the thermally and electrically conductive first inner plate are pushed against each other via the second triggering semiconductor element , the thermally and electrically conductive second inner plate and the protection member at least by two electrically conductive second thrust members oriented perpendicularly to the X-axis, electrically insulated from the thermally and electrically conductive second inner plate by second insulating shells , wherein the electrically and thermally conductive second contact plate and the thermally and electrically conductive first inner plate are electrically bonded.