mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an aircraft wing , including: a first panel ; a second panel ; clips ; ribs coupled between the first and second panels; and non-integral stiffeners discretely coupled between the ribs in a spanwise direction and to the first panel, wherein the stiffeners are spaced away from the first panel and the coupling between the stiffeners and the first panel are indirect couplings formed via the clips, the couplings formed via the clips deter axial loads from being received by the stiffeners while increasing a compressional stability of the first panel. an aircraft wing , including: a first panel ; a second panel ; clips ; ribs coupled between the first and second panels; and non-integral stiffeners discretely coupled between the ribs in a spanwise direction and to the first panel, wherein the stiffeners are spaced away from the first panel and the coupling between the stiffeners and the a first panel ; a second panel ; clips ; ribs coupled between the first and second panels; and non-integral stiffeners discretely coupled between the ribs in a spanwise direction and to the first panel, wherein the stiffeners are spaced away from the first panel and the coupling between the stiffeners and the first panel are indirect couplings formed via the clips, the couplings formed via the clips deter axial loads from being received by the stiffeners while increasing a compressional stability of the first panel.
A compound of Formula (A): wherein R 1 or R 2 is -X-W-L-Z, wherein when R 1 is -X-W-L-Z, then R 2 is -NH 2 , when R 2 is -X-W-L-Z, then R 1 is -OH, and X is NH; W is selected from a bond, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl, and carbonyl; L is a bond or a linker; and Z is a detectable label, and the detectable label is an enzyme; or a salt thereof. R 1 or R 2 is -X-W-L-Z, wherein when R 1 is -X-W-L-Z, then R 2 is -NH 2 , when R 2 is -X-W-L-Z, then R 1 is -OH, and X is NH; W is selected from a bond, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl, and carbonyl; L is a bond or a linker; and Z is a detectable label, and the detectable label is an enzyme; or a salt thereof.
A compound of Formula Ia or a stereoisomer or pharmaceutically acceptable salt thereof: wherein: R is CH 3 ; R 1 is selected from: H and C 1-4 alkyl; R 2 is selected from: H, C 1-4 alkyl, C 3-6 cycloalkyl-C 0-2 alkylene-, and C 1-4 alkoxy-C 1-4 alkylene-; ring A is selected from phenyl, pyridyl, thienyl, furanyl, pyrrolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, pyrimidyl, and pyridazinyl; ring A is optionally substituted with 1-2 R 3 groups; R 3 is independently selected from: C 1-4 alkyl, F, Cl, Br, I, -CN, OR a , SR a , NR a R b , CF 3 , OCF 3 , COR a , CO 2 R a , C(O)NR a R b , and S(O)pNR a R b ; R a is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; R b is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; and, p is independently selected from: 0, 1, and 2. R is CH 3 ; R 1 is selected from: H and C 1-4 alkyl; R 2 is selected from: H, C 1-4 alkyl, C 3-6 cycloalkyl-C 0-2 alkylene-, and C 1-4 alkoxy-C 1-4 alkylene-; ring A is selected from phenyl, pyridyl, thienyl, furanyl, pyrrolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, pyrimidyl, and pyridazinyl; ring A is optionally substituted with 1-2 R 3 groups; R 3 is independently selected from: C 1-4 alkyl, F, Cl, Br, I, -CN, OR a , SR a , NR a R b , CF 3 , OCF 3 , COR a , CO 2 R a , C(O)NR a R b , and S(O)pNR a R b ; R a is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; R b is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; and, p is independently selected from: 0, 1, and 2.
A module for telescopic protective covering, comprising: - a protective upper wall forming a first protective surface (S1) and movable along a movement direction (A); - a load-bearing structure for supporting the upper wall ; - an extendible protective element of the bellows type extendible along a sliding direction (A) of the module , the protective element being positioned below the upper wall , the extendible protective element defining a second protective surface (S2) with a variable extension between two adjacent modules ; wherein the module comprises a support configured for retaining the extendible protective element and located below the upper wall , characterised in that the load-bearing structure has the above-mentioned support configured to define a lower supporting surface for the extendible protective element in such a way that the extendible protective element slides on the supporting surface during a relative extension/retraction movement resulting from the movement of the module along the movement direction (A), wherein the covering module comprises at least one base portion designed for slidably coupling with at least one respective guide of the module, and the load-bearing structure extends vertically between the upper wall and the base portions for supporting the upper wall relative to the base portions . - a protective upper wall forming a first protective surface (S1) and movable along a movement direction (A); - a load-bearing structure for supporting the upper wall ; - an extendible protective element of the bellows type extendible along a sliding direction (A) of the module , the protective element being positioned below the upper wall , the extendible protective element defining a second protective surface (S2) with a variable extension between two adjacent modules ; wherein the module comprises a support configured for retaining the extendible protective element and located below the upper wall , characterised in that the load-bearing structure has the above-mentioned support configured to define a lower supporting surface for the extendible protective element in such a way that the extendible protective element slides on the supporting surface during a relative extension/retraction movement resulting from the movement of the module along the movement direction (A), wherein the covering module comprises at least one base portion designed for slidably coupling with at least one respective guide of the module, and the load-bearing structure extends vertically between the upper wall and the base portions for supporting the upper wall relative to the base portions .
A digital frequency synthesis circuit for generating a 180°-phase shifted local oscillator, LO, signal for a digital mixer of a downconverter , wherein the digital frequency synthesis circuit includes an I-path and a Q-path, and comprises: • a phase accumulator block configured to: ∘ obtain a register output value, ∘ generate a phase slope signal by adding a frequency control word, FCW, to the register output value; • a converter block configured to: o convert the phase slope signal to a LO signal; • an adder block configured to: o add a calibration code value (IIP2CAL_I, IIP2CAL_Q) to the LO signal, wherein the calibration code value (IIP2CAL_I, IIP2CAL_Q) is for second order input intercept point, IIP, calibration of the switches of the digital mixer ; and • a differential block configured to: ∘ generate the 180°-phase shifted LO signal, the 180°-phase shifted LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), by phase shifting the LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), and ∘ provide the 180°-phase shifted LO signal to the digital mixer . • a phase accumulator block configured to: ∘ obtain a register output value, ∘ generate a phase slope signal by adding a frequency control word, FCW, to the register output value; ∘ obtain a register output value, ∘ generate a phase slope signal by adding a frequency control word, FCW, to the register output value; • a converter block configured to: o convert the phase slope signal to a LO signal; o convert the phase slope signal to a LO signal; • an adder block configured to: o add a calibration code value (IIP2CAL_I, IIP2CAL_Q) to the LO signal, wherein the calibration code value (IIP2CAL_I, IIP2CAL_Q) is for second order input intercept point, IIP, calibration of the switches of the digital mixer ; and o add a calibration code value (IIP2CAL_I, IIP2CAL_Q) to the LO signal, wherein the calibration code value (IIP2CAL_I, IIP2CAL_Q) is for second order input intercept point, IIP, calibration of the switches of the digital mixer ; and • a differential block configured to: ∘ generate the 180°-phase shifted LO signal, the 180°-phase shifted LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), by phase shifting the LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), and ∘ provide the 180°-phase shifted LO signal to the digital mixer . ∘ generate the 180°-phase shifted LO signal, the 180°-phase shifted LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), by phase shifting the LO signal including the calibration code value (IIP2CAL_I, IIP2CAL_Q), and ∘ provide the 180°-phase shifted LO signal to the digital mixer .
A device for removing feed from a feed store , comprising a separating unit for separating feed from the feed store , which comprises a separating tool arranged on a movable framework , a conveyor unit moved along with the framework for conveying separated feed material from a supply region of the conveyor unit arranged on the separating unit to a discharge region of the conveyor unit moved along with the framework , and also a transport container provided for filling with separated feed material in a filling position in the discharge region of the conveyor unit , characterized in that the transport container is embodied as a container movable independently from the movable separating unit and self-propelled between the feed store and a feed supply, wherein in the filling position, a coupling unit is provided for aligning and carrying along the transport container in relation to the discharge region of the conveyor unit moved along with the framework .
A travel assistance method comprising: detecting surroundings of a host vehicle (V); generating a first traveling path (P1); generating a second traveling path (P2) based on the surroundings; determining that a switch from the first traveling path (P1) to the second traveling path (P2) is needed when detecting that the first traveling path (P1) is to end ahead of the host vehicle (V) while the host vehicle (V) is traveling on the first traveling path (P1); and controlling the host vehicle (V) to make a transition from the first traveling path (P1) to the second traveling path (P2) when the switch is determined to be needed; characterized in that: the first traveling path (P1) is generated based on map information around a circumference of the host vehicle (V); and the switch from the first traveling path (P1) to the second traveling path (P2) is determined to be needed while the first traveling path (P1) is being generated. detecting surroundings of a host vehicle (V); generating a first traveling path (P1); generating a second traveling path (P2) based on the surroundings; determining that a switch from the first traveling path (P1) to the second traveling path (P2) is needed when detecting that the first traveling path (P1) is to end ahead of the host vehicle (V) while the host vehicle (V) is traveling on the first traveling path (P1); and controlling the host vehicle (V) to make a transition from the first traveling path (P1) to the second traveling path (P2) when the switch is determined to be needed; characterized in that: the first traveling path (P1) is generated based on map information around a circumference of the host vehicle (V); and the switch from the first traveling path (P1) to the second traveling path (P2) is determined to be needed while the first traveling path (P1) is being generated. the first traveling path (P1) is generated based on map information around a circumference of the host vehicle (V); and the switch from the first traveling path (P1) to the second traveling path (P2) is determined to be needed while the first traveling path (P1) is being generated.
Unfired, refractory molded body , especially plate, especially for thermal insulation of molten metal and/or an ingot solidifying from molten metal, comprising a binding agent matrix of a set binding agent and aggregate grains of biogenic silicic acid, preferably of rice husk ash, which are incorporated into the binding agent matrix , wherein the binding agent matrix is comprised of silica gel, characterized in that with respect to the total dry mass of aggregate materials, the aggregate of the molded body consists of: a) of at least 50 wt.-% of biogenic silicic acid, preferably of rice husk ash, b) if applicable of one or more additional aggregate materials, which consist of SiO 2 , and c) 0 to < 10 wt.-% of one or more additional aggregate materials made of refractory material, which are not solely composed of SiO 2 , and that the molded body has a softening point, determined with a heating microscope according to DIN EN 51730 (09/2007) of 1500 to 1700°C. wherein the binding agent matrix is comprised of silica gel, characterized in that with respect to the total dry mass of aggregate materials, the aggregate of the molded body consists of: a) of at least 50 wt.-% of biogenic silicic acid, preferably of rice husk ash, b) if applicable of one or more additional aggregate materials, which consist of SiO 2 , and c) 0 to < 10 wt.-% of one or more additional aggregate materials made of refractory material, which are not solely composed of SiO 2 , and a) of at least 50 wt.-% of biogenic silicic acid, preferably of rice husk ash, b) if applicable of one or more additional aggregate materials, which consist of SiO 2 , and c) 0 to < 10 wt.-% of one or more additional aggregate materials made of refractory material, which are not solely composed of SiO 2 , and that the molded body has a softening point, determined with a heating microscope according to DIN EN 51730 (09/2007) of 1500 to 1700°C.
A camera lens actuation arrangement comprising: a support structure having an image sensor mounted thereon; a camera lens element arranged to focus an image on the image sensor and having an optical axis; a suspension system for allowing movement of the camera lens element along the optical axis; a total of four lengths of SMA wire held between the support structure and the camera lens element , each length of SMA wire being inclined as viewed radially outwards of the optical axis, wherein a first pair of the lengths of SMA wire are arranged to apply a force to the camera lens element with a component parallel to the optical axis in a first direction and a second pair of the lengths of SMA wire are arranged to apply a force to the camera lens element with a component parallel to the optical axis in a second direction opposite to the first direction, and a control circuit configured to drive the two pairs of lengths of SMA wire simultaneously to maintain tension in the SMA wires and hold the camera lens element at a position along the optical axis controlled by the relative contraction of each pair of lengths of SMA wire; wherein the control circuit is configured to supply drive signals to the lengths of SMA wire which provide resistive heating to selectively vary the temperature, and hence the degree of contraction, of the lengths of SMA wire. a support structure having an image sensor mounted thereon; a camera lens element arranged to focus an image on the image sensor and having an optical axis; a suspension system for allowing movement of the camera lens element along the optical axis; a total of four lengths of SMA wire held between the support structure and the camera lens element , each length of SMA wire being inclined as viewed radially outwards of the optical axis, wherein a first pair of the lengths of SMA wire are arranged to apply a force to the camera lens element with a component parallel to the optical axis in a first direction and a second pair of the lengths of SMA wire are arranged to apply a force to the camera lens element with a component parallel to the optical axis in a second direction opposite to the first direction, and a control circuit configured to drive the two pairs of lengths of SMA wire simultaneously to maintain tension in the SMA wires and hold the camera lens element at a position along the optical axis controlled by the relative contraction of each pair of lengths of SMA wire; wherein the control circuit is configured to supply drive signals to the lengths of SMA wire which provide resistive heating to selectively vary the temperature, and hence the degree of contraction, of the lengths of SMA wire.
A computer-implemented method, comprising: receiving an infrared photograph of a tangible product having an imprinted markup on the tangible product; receiving a visible light photograph of the same product with the same imprinted markup, wherein the imprinted markup is imprinted upon the tangible product using a dye that is visible only in a visible light spectrum and therefore visible only in the visible light photograph, and not visible when imaged using a spectral sampling in the infrared photograph; determining, based, in part, on the infrared photograph and visible light photograph, instructions for rendering a customization image of the tangible product depicting a particular customization; wherein the instructions for rendering the customization image of the tangible product depicting the particular customization indicate modifying a color of a particular location in the visible light photograph using a luminance value that is associated with the particular location in the infrared photograph and that indicates luminance of a respective pixel located at the particular location in the infrared photograph; and wherein the particular customization is not in the infrared photograph or the visible light photograph; wherein the method is performed by one or more computing devices . receiving an infrared photograph of a tangible product having an imprinted markup on the tangible product; receiving a visible light photograph of the same product with the same imprinted markup, wherein the imprinted markup is imprinted upon the tangible product using a dye that is visible only in a visible light spectrum and therefore visible only in the visible light photograph, and not visible when imaged using a spectral sampling in the infrared photograph; determining, based, in part, on the infrared photograph and visible light photograph, instructions for rendering a customization image of the tangible product depicting a particular customization; wherein the instructions for rendering the customization image of the tangible product depicting the particular customization indicate modifying a color of a particular location in the visible light photograph using a luminance value that is associated with the particular location in the infrared photograph and that indicates luminance of a respective pixel located at the particular location in the infrared photograph; and wherein the particular customization is not in the infrared photograph or the visible light photograph; wherein the method is performed by one or more computing devices .
Apparatus to apply a fluid to a substrate , the apparatus comprising: a first roller to rotate about an axis, the first roller including an outlet to provide gas to the substrate to guide the movement of the substrate ; and a second roller to rotate about an axis the second roller being positioned adjacent to the first roller to form a nip, characterized in that the first roller is to apply a fluid to a first side of the substrate, and provide gas to the substrate to guide the movement of the substrate subsequent to the application, by the first roller , of fluid to the substrate ; and in that a controller is arranged to control the rotation of the first roller and to control the provision of gas from the outlet while the first roller is rotated from a first predetermined angle to a second predetermined angle; wherein the apparatus is to provide gas from the outlet subsequent to the application of fluid as the substrate emerges from the nip . a first roller to rotate about an axis, the first roller including an outlet to provide gas to the substrate to guide the movement of the substrate ; and a second roller to rotate about an axis the second roller being positioned adjacent to the first roller to form a nip, characterized in that the first roller is to apply a fluid to a first side of the substrate, and provide gas to the substrate to guide the movement of the substrate subsequent to the application, by the first roller , of fluid to the substrate ; and in that a controller is arranged to control the rotation of the first roller and to control the provision of gas from the outlet while the first roller is rotated from a first predetermined angle to a second predetermined angle; wherein the apparatus is to provide gas from the outlet subsequent to the application of fluid as the substrate emerges from the nip .
A driveline for an implantable blood pump, comprising: a percutaneous connector including an outer tube , the outer tube defining an exterior surface and having a proximal portion and a distal portion opposite the proximal portion, the proximal portion being couplable to the implantable blood pump disposed within a body of a patient and the distal portion being couplable to an external controller outside of the body of the patient; and at least one electronic instrument coupled to the outer tube and fluidically sealed from the exterior surface of the outer tube ; wherein the exterior surface of the outer tube includes a biocompatible fabric disposed around at least a portion thereof; and wherein the biocompatible fabric includes an interior surface and an exterior surface opposite the interior surface, the interior surface configured to be in contact with the exterior surface of the outer tube and to include the at least one electronic instrument disposed thereon. a percutaneous connector including an outer tube , the outer tube defining an exterior surface and having a proximal portion and a distal portion opposite the proximal portion, the proximal portion being couplable to the implantable blood pump disposed within a body of a patient and the distal portion being couplable to an external controller outside of the body of the patient; and at least one electronic instrument coupled to the outer tube and fluidically sealed from the exterior surface of the outer tube ; wherein the exterior surface of the outer tube includes a biocompatible fabric disposed around at least a portion thereof; and wherein the biocompatible fabric includes an interior surface and an exterior surface opposite the interior surface, the interior surface configured to be in contact with the exterior surface of the outer tube and to include the at least one electronic instrument disposed thereon.