mhurhangee/patent-ind-claim-en huggingface dataset:
A system for singulation of a polymer resin mold compound-based substrate into packages by a laser ablation process comprised of: a buffer station; a laser; and a base plate with a system of internal pipes; and a jig for holding the polymer resin compound, wherein, in use, the laser cuts along trenches that are embedded in the jig, and such that, in use, the jig can be cooled by circulating a liquid through the base plate with the system of internal pipes; characterized in that the buffer station comprises a heated plate configured to pre-heat the polymer resin mold compound-based substrate before being loaded onto the jig. a buffer station; a laser; and a base plate with a system of internal pipes; and a jig for holding the polymer resin compound, wherein, in use, the laser cuts along trenches that are embedded in the jig, and such that, in use, the jig can be cooled by circulating a liquid through the base plate with the system of internal pipes; characterized in that the buffer station comprises a heated plate configured to pre-heat the polymer resin mold compound-based substrate before being loaded onto the jig.
A roof window defining a length direction and a width direction and comprising a frame , a sash , a pane element comprising at least one interior sheet and an exterior sheet , said pane element being connected to the sash by means of a glazing profile extending in the length direction of the roof window at each side of the pane element , and a set of cover members including a bottom sash covering extending in the width direction of the roof window and a side sash covering extending in the length direction of the roof window and connected to the sash to extend over at least the glazing profile and optionally the pane element at each side of the pane element , the sash being pivotally connected to the frame by means of a set of hinges defining a hinge axis (α) located between a top and a bottom of the roof window , characterised in that the exterior sheet of the pane element is provided with an extended portion extending beyond an inner portion to an edge at a distance from an edge of the at least one interior sheet and overlapping the bottom sash covering , the extended portion having such a configuration and such dimensions that its projection shadows the underlying bottom sash covering and any other subjacent components, to at least a large extent, that at least one masking (60; 260: 360) is provided to substantially cover the extended portion , and that each glazing profile and each side sash covering has such a length that they extend substantially to the edge of the extended portion of the exterior sheet of the pane element . a frame , a sash , a pane element comprising at least one interior sheet and an exterior sheet , said pane element being connected to the sash by means of a glazing profile extending in the length direction of the roof window at each side of the pane element , and a set of cover members including a bottom sash covering extending in the width direction of the roof window and a side sash covering extending in the length direction of the roof window and connected to the sash to extend over at least the glazing profile and optionally the pane element at each side of the pane element , the sash being pivotally connected to the frame by means of a set of hinges defining a hinge axis (α) located between a top and a bottom of the roof window , characterised in that the exterior sheet of the pane element is provided with an extended portion extending beyond an inner portion to an edge at a distance from an edge of the at least one interior sheet and overlapping the bottom sash covering , the extended portion having such a configuration and such dimensions that its projection shadows the underlying bottom sash covering and any other subjacent components, to at least a large extent, that at least one masking (60; 260: 360) is provided to substantially cover the extended portion , and that each glazing profile and each side sash covering has such a length that they extend substantially to the edge of the extended portion of the exterior sheet of the pane element .
A mill blank for dental CAD/CAM for preparing a dental restoration by being installed in a CAD/CAM device, wherein, the mill blank for dental CAD/CAM has a columnar shape, the mill blank for dental CAD/CAM has at least two recesses which includes a first recess opening to an upper surface of the mill blank for dental CAD/CAM and a second recess opening to a bottom surface of the mill blank for dental CAD/CAM and exactly one notched portion , the first recess and the second recess respectively include a first surface which is parallel to the upper surface and the bottom surface and a second surface which is a circumferential surface concentric with the circumferential surface of the mill blank for dental CAD/CAM and is vertical to the first surface , the notched portion is composed of a surface parallel to the center axis of the columnar shape of the mill blank for dental CAD/CAM , contacts with the second surface and is not formed over the second surface in the direction toward the center axis of the mill blank for dental CAD/CAM, and the notched portion is in a circumference portion .
A tunnel thruster electric driving unit comprising an electric motor , a controller for the electric motor and an electric motor support for mounting on a tunnel of an electric tunnel thruster, said electric motor support comprising a metal body with a first wall supporting the electric motor and an opposite second wall that is concave with the form of a cylindrical arch, wherein the controller of the electric motor is a heat generating electronic device, characterized in that the electric motor and the controller have separate housings and are mounted separately from each other to the electric motor support that is a heat conductive radiator element for cooling the controller , and at least one heat radiating surface of the controller is contacted to at least one heat-absorbing surface of the electric motor support .
A system comprising: a first heat exchanger; a ram inlet actuator configured to control ram air flow from a ram air inlet to the first heat exchanger, wherein the first heat exchanger is configured to provide cooling for a bleed air flow; and a controller configured to determine a predicted ram flow based on a first bleed air temperature drop across the first heat exchanger, a flow rate of the bleed air flow, and a ram air temperature at the ram air inlet , and wherein the controller is configured to control the ram inlet actuator based on the predicted ram flow. a first heat exchanger; a ram inlet actuator configured to control ram air flow from a ram air inlet to the first heat exchanger, wherein the first heat exchanger is configured to provide cooling for a bleed air flow; and a controller configured to determine a predicted ram flow based on a first bleed air temperature drop across the first heat exchanger, a flow rate of the bleed air flow, and a ram air temperature at the ram air inlet , and wherein the controller is configured to control the ram inlet actuator based on the predicted ram flow.
A display device comprising: a first substrate ; a second substrate facing the first substrate ; a through hole (HLE_TH) penetrating the first substrate and the second substrate ; a hole fusion pattern (FSP2) formed by fusing the first and second substrates to each other around the through hole (HLE_TH); and an edge fusion pattern (FSP1) formed by fusing the first and second substrates to each other at an edge of the first substrate or the second substrate , wherein each of the first substrate and the second substrate comprises glass, wherein a width (WS) of the edge fusion pattern (FSP1) is greater than a width (WH) of the hole fusion pattern (FSP2) in a plan view, and wherein the display device further comprises a display area for displaying a screen, and a non-display area surrounding the display area, characterized in that the through hole (HLE_TH) and the hole fusion pattern (FSP2) are at the display area, and the edge fusion pattern (FSP1) is at the non-display area, and wherein the display device further comprises a sub-hole fusion pattern (FSP_S) configured to bond the first and second substrates to each other at the display area, the sub-hole fusion pattern (FSP_S) surrounding at least one of the through hole (HLE_TH) or the hole fusion pattern (FSP2). a first substrate ; a second substrate facing the first substrate ; a through hole (HLE_TH) penetrating the first substrate and the second substrate ; a hole fusion pattern (FSP2) formed by fusing the first and second substrates to each other around the through hole (HLE_TH); and an edge fusion pattern (FSP1) formed by fusing the first and second substrates to each other at an edge of the first substrate or the second substrate , wherein each of the first substrate and the second substrate comprises glass, wherein a width (WS) of the edge fusion pattern (FSP1) is greater than a width (WH) of the hole fusion pattern (FSP2) in a plan view, and wherein the display device further comprises a display area for displaying a screen, and a non-display area surrounding the display area, characterized in that the through hole (HLE_TH) and the hole fusion pattern (FSP2) are at the display area, and the edge fusion pattern (FSP1) is at the non-display area, and wherein the display device further comprises a sub-hole fusion pattern (FSP_S) configured to bond the first and second substrates to each other at the display area, the sub-hole fusion pattern (FSP_S) surrounding at least one of the through hole (HLE_TH) or the hole fusion pattern (FSP2).
An accessory device detachably mountable to an imaging apparatus , having an accessory communication unit that provides, between itself and the imaging apparatus , channels including an accessory data communication channel used for transmission of data from the accessory device to the imaging apparatus , an imaging apparatus data communication channel used for data transmission from the imaging apparatus to the accessory device , and a notification channel used for notification between the imaging apparatus and the accessory device , and an accessory control unit that performs control of the accessory communication unit , wherein the accessory device is capable of switching between first settings corresponding to a clock-synchronized communication method that is synchronized with clock signals, and second settings corresponding to an asynchronous communication method, wherein, in accordance with receiving, via the imaging apparatus data communication channel, a notification for switching from the first settings to the second settings from the imaging apparatus in the first settings, the accessory control unit transmits a communication standby request to the imaging apparatus via the notification channel, the communication standby request signal being a signal for preventing data communication from the imaging apparatus to the accessory device , wherein the accessory control unit performs switching from the first settings to the second settings while transmitting the communication standby request signal, and wherein the accessory control unit ends transmission of the communication standby request signal after the switching is complete. wherein the accessory device is capable of switching between first settings corresponding to a clock-synchronized communication method that is synchronized with clock signals, and second settings corresponding to an asynchronous communication method, wherein, in accordance with receiving, via the imaging apparatus data communication channel, a notification for switching from the first settings to the second settings from the imaging apparatus in the first settings, the accessory control unit transmits a communication standby request to the imaging apparatus via the notification channel, the communication standby request signal being a signal for preventing data communication from the imaging apparatus to the accessory device , wherein the accessory control unit performs switching from the first settings to the second settings while transmitting the communication standby request signal, and wherein the accessory control unit ends transmission of the communication standby request signal after the switching is complete.
Optical device comprising a substrate on which is defined at least one primary waveguide (3 j ) defining a loop reflector, comprising first (4 1 ) and second (4 2 ) directional couplers, and a Mach-Zehnder interferometer characterised in that said Mach-Zehnder interferometer is intercalated between said first (4 1 ) and second (4 2 ) directional couplers and arranged for compensating a wavelength dependence of said directional couplers (4 i ).
A touch control array substrate applied in a liquid crystal display, the touch control array substrate comprising a touch electrode layer having a plurality of touch electrode blocks configured to detect a touch and configured to provide at least a portion of back light for image display in the touch control array substrate by reflecting ambient light, characterized in that each of the plurality of touch electrode blocks comprises a reflective part and a substantially transparent part electrically connected to each other. the touch control array substrate comprising a touch electrode layer having a plurality of touch electrode blocks configured to detect a touch and configured to provide at least a portion of back light for image display in the touch control array substrate by reflecting ambient light, characterized in that each of the plurality of touch electrode blocks comprises a reflective part and a substantially transparent part electrically connected to each other.
A method for diagnosing a slave computer communicating with a master computer , said computer being carried in a vehicle, said method comprising steps of: - Receipt of a fault code from the slave computer, - Determination whether the fault code received is associated with a function of the vehicle, - Recording the fault code in memory only if the fault code is associated with a function of the vehicle, said method being carried out by the master control unit . - Receipt of a fault code from the slave computer, - Determination whether the fault code received is associated with a function of the vehicle, - Recording the fault code in memory only if the fault code is associated with a function of the vehicle, said method being carried out by the master control unit .
A tie-in system for tie-in of a transfer pipe to a support unit , where the transfer pipe is arranged at least partly in a body of water , the tie-in system comprising: - a spool piece that in one end is adapted to be attached to the transfer pipe and in the other end to be connected to a pipe element , arranged on the support unit , with a flange connection , - a chute device that is adapted to be attached to the support unit and to accommodate the transfer pipe such that the chute device supports the transfer pipe and takes up and transfers vertical and transverse forces from the transfer pipe to the support unit , - a tie-in support , - a tie-in device that is connected to the spool piece and is adapted to be connected to a tie-in member on said tie-in support which is securely attached to the support unit such that tension loads are transferred from the transfer pipe to the support unit through the tie-in device and such that the flange connection will not take up any substantial tension loads from the transfer pipe when the transfer pipe and the pipe element are fluidly connected. - a spool piece that in one end is adapted to be attached to the transfer pipe and in the other end to be connected to a pipe element , arranged on the support unit , with a flange connection , - a chute device that is adapted to be attached to the support unit and to accommodate the transfer pipe such that the chute device supports the transfer pipe and takes up and transfers vertical and transverse forces from the transfer pipe to the support unit , - a tie-in support , - a tie-in device that is connected to the spool piece and is adapted to be connected to a tie-in member on said tie-in support which is securely attached to the support unit such that tension loads are transferred from the transfer pipe to the support unit through the tie-in device and such that the flange connection will not take up any substantial tension loads from the transfer pipe when the transfer pipe and the pipe element are fluidly connected.
A parking control method, comprising: if a current vehicle meets an automatic parking condition at a current location in a current parking lot, acquiring (S101; S201; S301) a safety perceptual data and a function perceptual data of the current vehicle by a safety sensor and a function sensor respectively; and transmitting the safety perceptual data collected by the safety sensor to a first control panel with a first automotive safety integrity level, ASIL, and transmitting the safety perceptual data collected by the safety sensor and the function perceptual data collected by the function sensor to a second control panel with a second ASIL, in which the first ASIL is the highest safety level and the second ASIL is lower than the first ASIL; receiving collision control information from the first control panel and driving control information from the second control panel; and controlling (S102) the current vehicle to move from the current location in the current parking lot to a target location in the current parking lot according to the collision control information and driving control information. if a current vehicle meets an automatic parking condition at a current location in a current parking lot, acquiring (S101; S201; S301) a safety perceptual data and a function perceptual data of the current vehicle by a safety sensor and a function sensor respectively; and transmitting the safety perceptual data collected by the safety sensor to a first control panel with a first automotive safety integrity level, ASIL, and transmitting the safety perceptual data collected by the safety sensor and the function perceptual data collected by the function sensor to a second control panel with a second ASIL, in which the first ASIL is the highest safety level and the second ASIL is lower than the first ASIL; receiving collision control information from the first control panel and driving control information from the second control panel; and controlling (S102) the current vehicle to move from the current location in the current parking lot to a target location in the current parking lot according to the collision control information and driving control information.
A system for removing a tissue specimen through a body opening defining a tissue margin, the system comprising: a guard including a band made of flexible cut-resistant material; the band having an inner surface and an outer surface interconnected by a top end and a bottom end and by a first end and a second end ; the band being configured to define a central lumen having a longitudinal axis ; the central lumen having a lumen diameter that is perpendicular to the longitudinal axis ; the outer surface of the band having a curved concavity along the longitudinal axis from the top end to the bottom end and extending circumferentially around the guard from the first end to the second end ; wherein at least a portion of the outer surface of the band overlaps and faces at least a portion of the inner surface of the band such that the inner surface of one part of the band is nested in the curved concavity of the outer surface of the band. a guard including a band made of flexible cut-resistant material; the band having an inner surface and an outer surface interconnected by a top end and a bottom end and by a first end and a second end ; the band being configured to define a central lumen having a longitudinal axis ; the central lumen having a lumen diameter that is perpendicular to the longitudinal axis ; the outer surface of the band having a curved concavity along the longitudinal axis from the top end to the bottom end and extending circumferentially around the guard from the first end to the second end ; wherein at least a portion of the outer surface of the band overlaps and faces at least a portion of the inner surface of the band such that the inner surface of one part of the band is nested in the curved concavity of the outer surface of the band.
A compound of the formula: wherein n is 1 or 2; or a pharmaceutically acceptable salt thereof.
Method for supervising a working area in which a collaborative robot (12, 12a-c) and a carrying robot (10, 10a-c) are arranged to operate, wherein the method comprises: - arranging the carrying robot (10, 10a-c) to carry and move the collaborative robot (12, 12a-c) within the working area , the carrying robot (10, 10a-c) comprising at least one automatically controlled, reprogrammable, multipurpose manipulator programmable in three or more axes, and the collaborative robot (12, 12a-c) being designed for direct interaction with a human to perform collaborative work with the human; - monitoring the working area ; - detecting whether or not a person is within a dangerous region (28, 28a-c), the dangerous region (28, 28a-c) being a space around the carrying robot (10, 10a-c) in which there is a potential risk of collision between the carrying robot (10, 10a-c) and the person ; - activating a safe mode of the carrying robot (10, 10a-c) upon detecting that a person is within the dangerous region (28, 28a-c); - deactivating the safe mode of the carrying robot (10, 10a-c) upon detecting that no person is within the dangerous region (28, 28a-c); and - operating the collaborative robot (12, 12a-c) irrespective of whether a person within the dangerous region (28, 28a-c) is detected or not. - arranging the carrying robot (10, 10a-c) to carry and move the collaborative robot (12, 12a-c) within the working area , the carrying robot (10, 10a-c) comprising at least one automatically controlled, reprogrammable, multipurpose manipulator programmable in three or more axes, and the collaborative robot (12, 12a-c) being designed for direct interaction with a human to perform collaborative work with the human; - monitoring the working area ; - detecting whether or not a person is within a dangerous region (28, 28a-c), the dangerous region (28, 28a-c) being a space around the carrying robot (10, 10a-c) in which there is a potential risk of collision between the carrying robot (10, 10a-c) and the person ; - activating a safe mode of the carrying robot (10, 10a-c) upon detecting that a person is within the dangerous region (28, 28a-c); - deactivating the safe mode of the carrying robot (10, 10a-c) upon detecting that no person is within the dangerous region (28, 28a-c); and - operating the collaborative robot (12, 12a-c) irrespective of whether a person within the dangerous region (28, 28a-c) is detected or not.