mhurhangee/patent-ind-claim-en huggingface dataset:
A leading edge high-lift device deployable from a wing of an aircraft , the leading edge high-lift device comprising: a leading edge ; a trailing edge ; a lower surface and an upper surface both extending between the leading edge and the trailing edge; a trailing edge region being defined by the trailing edge and an adjacent region thereto; and a shaping device disposed at the trailing edge region, the shaping device moveable between a non-activated position and an activated position; wherein the shaping device is hingedly coupled to the lower surface at the trailing edge region , characterized in that the shaping device is configured to be activated via aerodynamic forces, wherein the shaping device engages a stop in the activated position. a leading edge ; a trailing edge ; a lower surface and an upper surface both extending between the leading edge and the trailing edge; a trailing edge region being defined by the trailing edge and an adjacent region thereto; and a shaping device disposed at the trailing edge region, the shaping device moveable between a non-activated position and an activated position;
An identifier allocation method, performed by a first core network device, the method comprising: receiving a first request from a terminal device; allocating a first capability information identifier; and sending a first response to the terminal device, wherein the first response carries the first capability information identifier, wherein the method further comprises: receiving a second request from the terminal device; allocating a capability information identifier count to the terminal device, the capability information identifier count being a maximum quantity of capability information identifiers in the terminal device; and sending a second response to the terminal device, wherein the second response carries the capability information identifier count. receiving a first request from a terminal device; allocating a first capability information identifier; and sending a first response to the terminal device, wherein the first response carries the first capability information identifier, wherein the method further comprises: receiving a second request from the terminal device; allocating a capability information identifier count to the terminal device, the capability information identifier count being a maximum quantity of capability information identifiers in the terminal device; and sending a second response to the terminal device, wherein the second response carries the capability information identifier count. receiving a second request from the terminal device; allocating a capability information identifier count to the terminal device, the capability information identifier count being a maximum quantity of capability information identifiers in the terminal device; and sending a second response to the terminal device, wherein the second response carries the capability information identifier count.
A foldable mobile terminal apparatus comprising: a first section ; a second section coupled to the first section and configured to be movable between a fully folded state and an unfolded state including a plurality of partially folded states; a flexible display coupled to the first section and the second section; a geomagnetic sensor ; at least one second sensor configured to detect a folded state of the mobile terminal apparatus , the at least one second sensor comprising an angle sensor ; and at least one processor configured to: while the mobile terminal apparatus is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor ; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus ; identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction. a first section ; a second section coupled to the first section and configured to be movable between a fully folded state and an unfolded state including a plurality of partially folded states; a flexible display coupled to the first section and the second section; a geomagnetic sensor ; at least one second sensor configured to detect a folded state of the mobile terminal apparatus , the at least one second sensor comprising an angle sensor ; and at least one processor configured to: while the mobile terminal apparatus is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor ; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus ; identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction. while the mobile terminal apparatus is partially folded: identify an angle between the first section and the second section based on angle related information obtained by the angle sensor ; based on the identified angle, identify one of the plurality of partially folded states of the mobile terminal apparatus ; identify a compass direction based on a geomagnetic value measured by the geomagnetic sensor and a reference geomagnetic value corresponding to the identified one of the plurality of partially folded states; and control the flexible display to display information corresponding to the identified compass direction.
Multiturn rotary encoder having - a graduation carrier with a measurement graduation , - a scanning device which can be used to scan the measurement graduation in order to generate position signals (PS, PS1, PS2), - a processing unit which can be used to process the position signals (PS, PS1, PS2) to form position values (POS, POS1, POS2), - an interface unit for communicating with downstream electronics via a data transmission channel , and - a first clock generator for generating a measurement clock signal (M_CLK) for controlling the scanning of the measurement graduation in pulsed operation, wherein a clock monitoring unit is present, to which the measurement clock signal (M_CLK) and/or a clock signal (V_CLK) resulting from the measurement clock signal (M_CLK) is/are supplied for monitoring and which comprises a second clock generator for generating a test clock signal (T_CLK), a first comparator unit , to which the test clock signal (T_CLK) and one of the clock signals (M_CLK, V_CLK) to be monitored are supplied and in which the supplied clock signals (T_CLK, M_CLK, V_CLK) can be compared, and an error memory in which a result of the comparison can be stored as status information (STAT). - a graduation carrier with a measurement graduation , - a scanning device which can be used to scan the measurement graduation in order to generate position signals (PS, PS1, PS2), - a processing unit which can be used to process the position signals (PS, PS1, PS2) to form position values (POS, POS1, POS2), - an interface unit for communicating with downstream electronics via a data transmission channel , and - a first clock generator for generating a measurement clock signal (M_CLK) for controlling the scanning of the measurement graduation in pulsed operation,
A composition for an encapsulant, comprising: 1) a silicone resin; 2) one or more moisture absorbents; 3) one or more photoinitiators; and 4) a monomer capable of dissolving the photoinitiators , wherein the silicone resin comprises methacrylate polydimethylsiloxane, and wherein the monomer capable of dissolving the photoinitiators comprises one or more selected from the group alpha-methacryloxy-gamma-butyrolactone and 1,6-hexanediol dimethacrylate. 1) a silicone resin; 2) one or more moisture absorbents; 3) one or more photoinitiators; and 4) a monomer capable of dissolving the photoinitiators ,
An electrical connector (22; 26) configured to mount to a substrate (24; 28), the electrical connector comprising: a connector housing (30; 100) defining an end (38; 104) that is configured to be mounted to the substrate; a plurality of differential pairs (50; 120) of electrical signal contacts (46; 116) supported by the connector housing (30; 100), the plurality of differential pairs (50; 120) being arranged along respective parallel rows; and a plurality of ground shields (52; 122) supported by the connector housing (30; 100), each of the plurality of ground shields (52; 122) at least partially surrounding a respective one of the differential pairs (50; 120), characterized in that each of the differential pairs (50; 120) defines a pair of mounting ends (49; 119) that are aligned in a first direction (T), and each of the plurality of ground shields (52; 122) defines two pairs of ground tails (58a, 58b; 128a, 128b), each pair of ground tails aligned in a second direction (A) that is perpendicular to the first direction (T). a connector housing (30; 100) defining an end (38; 104) that is configured to be mounted to the substrate; a plurality of differential pairs (50; 120) of electrical signal contacts (46; 116) supported by the connector housing (30; 100), the plurality of differential pairs (50; 120) being arranged along respective parallel rows; and a plurality of ground shields (52; 122) supported by the connector housing (30; 100), each of the plurality of ground shields (52; 122) at least partially surrounding a respective one of the differential pairs (50; 120),
A system comprising: a grating coupled laser comprising a laser cavity and a transmit grating optically coupled to the laser cavity , the transmit grating configured to diffract light emitted by the laser cavity out of the grating coupled laser ; a laser optical interposer (LOI) comprising an LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) with an input end and an output end; an optical isolator positioned between the grating coupled laser and the LOI ; a light redirector positioned to redirect the light, after the light passes through the optical isolator , into the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) of the LOI ; and further comprising: a silicon (Si) photonic integrated circuit (PIC) that includes a waveguide with a tapered end positioned beneath the output end of the LOI waveguide , the tapered end of the waveguide aligned in two orthogonal directions with the output end of the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108), the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) and the waveguide in the Si PIC forming an adiabatic coupler. a grating coupled laser comprising a laser cavity and a transmit grating optically coupled to the laser cavity , the transmit grating configured to diffract light emitted by the laser cavity out of the grating coupled laser ; a laser optical interposer (LOI) comprising an LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) with an input end and an output end; an optical isolator positioned between the grating coupled laser and the LOI ; a light redirector positioned to redirect the light, after the light passes through the optical isolator , into the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) of the LOI ; and further comprising: a silicon (Si) photonic integrated circuit (PIC) that includes a waveguide with a tapered end positioned beneath the output end of the LOI waveguide , the tapered end of the waveguide aligned in two orthogonal directions with the output end of the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108), the LOI waveguide (314, 502, 602, 802, 902, 1102 and 1108) and the waveguide in the Si PIC forming an adiabatic coupler.
Building construction comprising a wooden wall, a concrete foundation or slab and a multi purpose support structure interposed in a wooden-cement interface between the wooden wall and the concrete foundation or slab, said support structure comprising a quadrilateral-shaped metal section with an isosceles trapezoidal cross section having a flat base provided with slots for fixing means and having upwardly protruding, inwardly inclined side walls , the upper part of which provides flat coplanar supports delimiting an open upper interspace , whereby said open upper interspace is occluded by the base of said wooden wall resting on said coplanar supports of the section so as to create a continuous air chamber which runs along the entire perimeter of the wall for circulation of air touching the base of said wooden wall .
A method of manufacturing an optoelectronic device, comprising the successive steps of: a) transferring, onto a surface of a control integrated circuit previously formed inside and on a semiconductor substrate and comprising a plurality of metal connection pads , an active diode stack comprising at least first and second doped semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the metal pads of the control circuit ; and b) forming in the active stack trenches delimiting a plurality of diodes connected to different metal pads of the control circuit , wherein, at step a), the following metal layers interface between the control integrated circuit and the active stack : one first metal layer extending over substantially the entire surface of the control circuit on the side of the metal pads ; and one second metal layer extending over substantially the entire surface of the second semiconductor layer opposite to the first semiconductor layer , wherein, at step a), the active diode stack is bonded on the control circuit by molecular bonding of the first metal layer on the second metal layer , and wherein the first metal layer comprises an upper layer made of a metal of same nature as an upper layer of the second metal layer , the bonding of the active diode stack on the control circuit being obtained by direct contact of said upper layers one with each other. a) transferring, onto a surface of a control integrated circuit previously formed inside and on a semiconductor substrate and comprising a plurality of metal connection pads , an active diode stack comprising at least first and second doped semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the metal pads of the control circuit ; and b) forming in the active stack trenches delimiting a plurality of diodes connected to different metal pads of the control circuit , one first metal layer extending over substantially the entire surface of the control circuit on the side of the metal pads ; and one second metal layer extending over substantially the entire surface of the second semiconductor layer opposite to the first semiconductor layer , wherein, at step a), the active diode stack is bonded on the control circuit by molecular bonding of the first metal layer on the second metal layer , and wherein the first metal layer comprises an upper layer made of a metal of same nature as an upper layer of the second metal layer , the bonding of the active diode stack on the control circuit being obtained by direct contact of said upper layers one with each other.
Packaging for an implant , characterized in that an inner surface of the packaging has at least in sections protruding microstructured adhesive elements for adhering to the implant , the microstructured adhesive elements being designed in such a way that they allow the implant optionally contained in the packaging to adhere or be fastened to the inner surface of the packaging mainly or exclusively on the basis of van der Waals forces.
Method for controlling a server cluster , the cluster comprising a plurality of nodes , each node comprising a plurality of computing cores , characterized in that: - automated agents measure the variation of at least one metric quantifying the utilization of the nodes for the execution of an application, said application being capable of having a plurality of phases, each phase being linked to a utilization level of each computing core on which the application is executed, - the agents determine, for each node , whether a phase change has taken place in the executed application by means of the metric measurement and, if so, control an operating change of the node , the operating change being chosen from the list consisting of: ∘ modifying the operating point of the computing cores of said node ; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node , - an automated coordinator aggregates, at regular intervals, the metric measurements and operating changes of the nodes that have taken place and determines a variation of the energy consumption of the server cluster and a variation of the energy consumption of each of the nodes , and - the coordinator sends instructions to at least one of the agents to refine the decisions taken by said agent on a node, according to the aggregated measurements and the variation of the energy consumption of the server cluster and the variation of the energy consumption of each of the nodes . - automated agents measure the variation of at least one metric quantifying the utilization of the nodes for the execution of an application, said application being capable of having a plurality of phases, each phase being linked to a utilization level of each computing core on which the application is executed, - the agents determine, for each node , whether a phase change has taken place in the executed application by means of the metric measurement and, if so, control an operating change of the node , the operating change being chosen from the list consisting of: ∘ modifying the operating point of the computing cores of said node ; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node , ∘ modifying the operating point of the computing cores of said node ; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node , - an automated coordinator aggregates, at regular intervals, the metric measurements and operating changes of the nodes that have taken place and determines a variation of the energy consumption of the server cluster and a variation of the energy consumption of each of the nodes , and - the coordinator sends instructions to at least one of the agents to refine the decisions taken by said agent on a node, according to the aggregated measurements and the variation of the energy consumption of the server cluster and the variation of the energy consumption of each of the nodes .
Apparatus for dissection of material from a biological sample disposed on a planar substrate , the apparatus comprising: • a dissection tool • a platform for supporting the planar substrate; • a positioning system configured to move the dissection tool and the platform relative to each other and control their relative positions such that the dissection tool selectively engages with the biological sample in a predefined region thereof (S; X); whereby the dissection tool has a longitudinal axis (L) and is arranged at an oblique angle (α) relative to the platform , and comprises a thin-walled gouging head having a base portion ; wherein: - the positioning system is further configured to bring an underside of the gouging head into contact with the planar substrate in use of the tool; - the gouging head further has opposing side portions which extend from the base portion in a direction away from the planar substrate and which at least partly enclose a cavity within the gouging head for receiving biological material that is dissected when relative movement between the gouging head and the planar substrate causes a front face of the gouging head to cut a track though the biological sample , and - the apparatus further comprises a suction device in connection with the gouging head . • a dissection tool • a platform for supporting the planar substrate; • a positioning system configured to move the dissection tool and the platform relative to each other and control their relative positions such that the dissection tool selectively engages with the biological sample in a predefined region thereof (S; X); whereby the dissection tool has a longitudinal axis (L) and is arranged at an oblique angle (α) relative to the platform , and comprises a thin-walled gouging head having a base portion ; wherein: - the positioning system is further configured to bring an underside of the gouging head into contact with the planar substrate in use of the tool; - the gouging head further has opposing side portions which extend from the base portion in a direction away from the planar substrate and which at least partly enclose a cavity within the gouging head for receiving biological material that is dissected when relative movement between the gouging head and the planar substrate causes a front face of the gouging head to cut a track though the biological sample , and - the apparatus further comprises a suction device in connection with the gouging head . - the positioning system is further configured to bring an underside of the gouging head into contact with the planar substrate in use of the tool; - the gouging head further has opposing side portions which extend from the base portion in a direction away from the planar substrate and which at least partly enclose a cavity within the gouging head for receiving biological material that is dissected when relative movement between the gouging head and the planar substrate causes a front face of the gouging head to cut a track though the biological sample , and - the apparatus further comprises a suction device in connection with the gouging head .
Wheel protector for a bicycle, comprising - a wheel protecting body which consists at least partially and/or in some sections of plastic, and - carrying means , wherein the wheel protecting body and the carrying means are firmly connected to one another by means of back-injection, wherein the carrying means comprise at least one film or consist of at least one film, characterised in that the wheel protecting body has two lateral mouldings which are configured to be bent downward for mounting to a bicycle, such that, by means of bending downward the two lateral mouldings , all in all a partially toroidal shape of the wheel protector results, that the carrying means are carrying means for decoration and/or information and that the at least one film is printed. - a wheel protecting body which consists at least partially and/or in some sections of plastic, and - carrying means , wherein the wheel protecting body and the carrying means are firmly connected to one another by means of back-injection, wherein the carrying means comprise at least one film or consist of at least one film, characterised in that the wheel protecting body has two lateral mouldings which are configured to be bent downward for mounting to a bicycle, such that, by means of bending downward the two lateral mouldings , all in all a partially toroidal shape of the wheel protector results, that the carrying means are carrying means for decoration and/or information and that the at least one film is printed.