mhurhangee/patent-ind-claim-en huggingface dataset:
Method for reducing a reflection when operating a head-up display of a motor vehicle , wherein the head-up display comprises a covering disc element , through which a projection beam path of a projection emerges from a housing of the head-up display and which comprises a dimming element designed to dim a light beam of ambient light of the motor vehicle , said light beam being deflected by the covering disk element , comprising the following steps carried out by a control device of the head-up display : - determining a beam path of the deflected light beam (30, S1), - detecting a current position and an orientation of the dimming element (16, S2), - determining a region to be kept free of the deflected light beam around an eye point of a user of the motor vehicle (10, S3), - determining, depending on the determined beam path and on the detected position of the dimming element , whether the deflected light beam passes through the region to be kept free (S4), and - if the deflected light beam passes through the region to be kept free, generating a control signal for setting a position of the dimming element in order to dim the deflected light beam by means of an adjustment device of the head-up display , and setting a position of the dimming element by means of the adjustment device depending on the control signal (S5). - determining a beam path of the deflected light beam (30, S1), - detecting a current position and an orientation of the dimming element (16, S2), - determining a region to be kept free of the deflected light beam around an eye point of a user of the motor vehicle (10, S3), - determining, depending on the determined beam path and on the detected position of the dimming element , whether the deflected light beam passes through the region to be kept free (S4), and - if the deflected light beam passes through the region to be kept free, generating a control signal for setting a position of the dimming element in order to dim the deflected light beam by means of an adjustment device of the head-up display , and setting a position of the dimming element by means of the adjustment device depending on the control signal (S5).
Seal for sliding doors and sliding gates, with at least one release rod and with a trigger , wherein the seal has - a coupling element , - a housing , - a sealing bar and - at least one movement mechanism wherein the trigger , the release rod and the coupling element are connected to one another, wherein the movement mechanism connects the housing and the sealing bar to one another in a displaceable manner and the movement mechanism has movement transmission means (Ma, Mb, Mc), in order convert a movement of the coupling element into a movement of the sealing bar, wherein a force introduced via the trigger into the release rod can be transferred into the movement transmission means (Ma, Mb, Mc) of the movement mechanism by means of the coupling element , in order to move the sealing bar, wherein the movement mechanism is a scissor mechanism and the movement transmission means are formed by scissor elements, characterized in that the trigger is provided in the region of a first end of the housing of the seal and extends laterally beyond the housing and the coupling element is arranged in the region of a second end of the housing opposite the first end and the movement of the sealing bar can be actuated by pulling the trigger, the release rod has a thread at both ends, one of the two threads of the release rod is connected to a complementary thread of the trigger and the other of the two threads of the release rod is connected to a complementary thread of the coupling element and the trigger has a threaded hole, into which one end of the release rod is screwed. - a coupling element , - a housing , - a sealing bar and - at least one movement mechanism wherein the trigger , the release rod and the coupling element are connected to one another, wherein the movement mechanism connects the housing and the sealing bar to one another in a displaceable manner and the movement mechanism has movement transmission means (Ma, Mb, Mc), in order convert a movement of the coupling element into a movement of the sealing bar, wherein a force introduced via the trigger into the release rod can be transferred into the movement transmission means (Ma, Mb, Mc) of the movement mechanism by means of the coupling element , in order to move the sealing bar, wherein the movement mechanism is a scissor mechanism and the movement transmission means are formed by scissor elements, characterized in that the trigger is provided in the region of a first end of the housing of the seal and extends laterally beyond the housing and the coupling element is arranged in the region of a second end of the housing opposite the first end and the movement of the sealing bar can be actuated by pulling the trigger, the release rod has a thread at both ends, one of the two threads of the release rod is connected to a complementary thread of the trigger and the other of the two threads of the release rod is connected to a complementary thread of the coupling element and the trigger has a threaded hole, into which one end of the release rod is screwed.
A kit for forming a monument comprising a backplate having a top surface , a plurality of tiles that each have a face with a raised symbol on the face configured to be positioned selectively on the top surface of the backplate, and a perimeter frame sized to mate with the backplate to form a cavity , so the tiles can be located in positions on the top surface of the backplate , the perimeter frame can be affixed to the backplate, and a moldable material can flow into the cavity where the moldable material can harden, followed by removal of the perimeter frame , backplate and tiles from the hardened moldable material, leaving a hardened material with a surface having a recess formed by the raised symbol, characterized in that the top surface of the backplate has spaced-apart T-bars that have crosspieces forming slots between the crosspieces of the T-bars and the top surface of the backplate, and the tiles have edges sized to fit into the slots, and in that the crosspieces of the T-bars form slots of differing thicknesses on either side of the T-bars, and the tiles have edges of differing thicknesses so that a tile slid between two T-bars only fits one way. a backplate having a top surface , a plurality of tiles that each have a face with a raised symbol on the face configured to be positioned selectively on the top surface of the backplate, and a perimeter frame sized to mate with the backplate to form a cavity , so the tiles can be located in positions on the top surface of the backplate , the perimeter frame can be affixed to the backplate, and a moldable material can flow into the cavity where the moldable material can harden, followed by removal of the perimeter frame , backplate and tiles from the hardened moldable material, leaving a hardened material with a surface having a recess formed by the raised symbol, characterized in that the top surface of the backplate has spaced-apart T-bars that have crosspieces forming slots between the crosspieces of the T-bars and the top surface of the backplate, and the tiles have edges sized to fit into the slots, and in that the crosspieces of the T-bars form slots of differing thicknesses on either side of the T-bars, and the tiles have edges of differing thicknesses so that a tile slid between two T-bars only fits one way.
Vehicle module for a vehicle, which module comprises - one or more sensors which are designed to record sensor data in an operating mode of the vehicle module ; - an interface for a data line for transmitting the sensor data to a control device of the vehicle; characterized in that the sensors are designed to assume a large number of discrete states in an energy saving mode in order to provide a basic function of the vehicle module in the energy saving mode of the vehicle module ; wherein the vehicle module further comprises - an energy saving mode switch which is designed to connect the one or more sensors to the interface for the data line in the energy saving mode in such a way that information relating to a state of the large number of discrete states can be transmitted to the control device by means of the data line . - one or more sensors which are designed to record sensor data in an operating mode of the vehicle module ; - an interface for a data line for transmitting the sensor data to a control device of the vehicle; - an energy saving mode switch which is designed to connect the one or more sensors to the interface for the data line in the energy saving mode in such a way that information relating to a state of the large number of discrete states can be transmitted to the control device by means of the data line .
A device to eliminate germs and bacteria from hands, the device comprising: a cabinet including a front opening for entry of the hands to be disinfected, the cabinet including: an outer box , the outer box having a front end, a rear end, a top end, a bottom end, a rear wall, side walls, a top wall, and a bottom wall; an inner box placed inside the outer box , the inner box having a cavity where the hands are placed, a front end, a rear end, a top end, a bottom end, a rear wall, side walls, a top wall, and a bottom wall; spaces between the rear, the side, the top and the bottom walls of the outer box and the inner box ; a plurality of slots (5a-5c) located in the top wall, bottom wall, and side wall of the inner box ; an ozone generator located between the rear walls of the outer box and the inner box; fans located facing the ozone generator , the fans circulate the ozone through the cabinet, the ozone moves inside the cabinet by passing through the plurality of slots (5a-5c) of the inner box; a first mesh made of nichrome, the first mesh is a heated mesh; a second mesh of nichrome located near the opening of the cabinet; and at least one aperture located in the front end near the top end of the inner box, the aperture allows the passing of air forming a curtain of air which forms an ozone barrier on the inside of the cabinet. an outer box , the outer box having a front end, a rear end, a top end, a bottom end, a rear wall, side walls, a top wall, and a bottom wall; an inner box placed inside the outer box , the inner box having a cavity where the hands are placed, a front end, a rear end, a top end, a bottom end, a rear wall, side walls, a top wall, and a bottom wall; spaces between the rear, the side, the top and the bottom walls of the outer box and the inner box ; a plurality of slots (5a-5c) located in the top wall, bottom wall, and side wall of the inner box ; an ozone generator located between the rear walls of the outer box and the inner box; fans located facing the ozone generator , the fans circulate the ozone through the cabinet, the ozone moves inside the cabinet by passing through the plurality of slots (5a-5c) of the inner box; a first mesh made of nichrome, the first mesh is a heated mesh; a second mesh of nichrome located near the opening of the cabinet; and at least one aperture located in the front end near the top end of the inner box, the aperture allows the passing of air forming a curtain of air which forms an ozone barrier on the inside of the cabinet.
Transmission device for attaching to a drive shaft, wherein the transmission device has a one-piece base body , a pinion and a rack , wherein in the arranged state on the drive shaft the one-piece base body surrounds the drive shaft at least partly, wherein the pinion is arranged in the mounted state on the base body and on the drive shaft, wherein the rack cooperates with the pinion and runs through the base body , wherein the pinion and the rack are mounted to be movable on the base body , wherein the transmission device comprises a housing , wherein the housing has a connecting member (15 - 17) for mounting the transmission device on a building structure, and wherein independently of an arrangement of the transmission device on the drive shaft the base body is mounted rotatably on the housing , characterised in that the base body has a guiding element (7 - 9) and the housing a guiding member (10 - 12) and wherein the guiding element (7 - 9) and the guiding member (10 - 12) are coordinated with one another such that the base body is mounted rotatably on the housing .
A driver circuit for generating a control voltage for an electrical device , comprising a receiver module comprising a receiver unit for receiving an initiation signal and a low-pass filter for filtering the initiation signal to generate a driving signal; and a counter unit having an input terminal (C) and a plurality of output terminals (Q1, Q2, Q3, Q4), wherein the counter unit is adapted to receive the driving signal via the input terminal (C) and sequentially activate the output terminals (Q1, Q2, Q3, Q4) following a predetermined counting sequence, thereby outputting a control signal; and a voltage regulation unit , comprising a plurality of first resistors (R1, R2, R3, R4) and a second resistor (R5) connected at one end in series with the first resistors (R1, R2, R3, R4), so that the control voltage for driving the electrical device is output from the first resistor (R1, R2, R3, R4) connected to the activated output terminal (Q1, Q2, Q3, Q4) and the second resistor (R5) according to the control signal characterized in that the driver circuit further comprises: a plurality of diodes , each connected to a respective one of the output terminals (Q1, Q2, Q3, Q4) of the counter unit , wherein each of said plurality of first resistors (R1, R2, R3, R4) is connected to a respective one of said plurality of diodes .
Process for treating substitute fuel for subsequent analysis of the substituted fuel , wherein a. the substitute fuel is provided in comminuted and homogenized form, b. the substitute fuel provided is subsequently milled together with a mineral and/or an inorganic salt to a size of less than 100 μm and c. a ready-to-analyse sample is subsequently produced from the milled mixture . a. the substitute fuel is provided in comminuted and homogenized form, b. the substitute fuel provided is subsequently milled together with a mineral and/or an inorganic salt to a size of less than 100 μm and c. a ready-to-analyse sample is subsequently produced from the milled mixture .
A method of preparing a formulation having a pharmaceutically acceptable liquid extract of Curcuma, the method comprising: macerating at least a portion of a Curcuma root for an effective time in an at least substantially non-toxic extraction solvent that is miscible with phenolic diketones that include curcumin, demethoxycurcumin, and bisdemethoxycurcumin; and, pharmaceutically acceptable as a carrier for the phenolic diketones, the carrier having an acute oral toxicity with an LD50 of at least 49,700 mg/kg; wherein, the macerating includes covering the portion of the Curcuma root with the extraction solvent; separating the extraction solvent from the macerated Curcuma root to create a liquid extract of Curcuma, the extract including curcumin; and, incorporating the liquid extract directly into the formulation without removal of the extraction solvent; wherein, the extraction solvent is selected from the group consisting of isopropyl myristate, polysorbate 80, and combinations thereof. macerating at least a portion of a Curcuma root for an effective time in an at least substantially non-toxic extraction solvent that is miscible with phenolic diketones that include curcumin, demethoxycurcumin, and bisdemethoxycurcumin; and, pharmaceutically acceptable as a carrier for the phenolic diketones, the carrier having an acute oral toxicity with an LD50 of at least 49,700 mg/kg; wherein, the macerating includes covering the portion of the Curcuma root with the extraction solvent; pharmaceutically acceptable as a carrier for the phenolic diketones, the carrier having an acute oral toxicity with an LD50 of at least 49,700 mg/kg; wherein, the macerating includes covering the portion of the Curcuma root with the extraction solvent; separating the extraction solvent from the macerated Curcuma root to create a liquid extract of Curcuma, the extract including curcumin; and, incorporating the liquid extract directly into the formulation without removal of the extraction solvent; wherein, the extraction solvent is selected from the group consisting of isopropyl myristate, polysorbate 80, and combinations thereof.
A bipolar plate for a fuel cell, comprising a corrugated plate with a hole pattern consisting of at least one first row of holes , as well as a second plate which is arranged on the corrugated plate in a sealing manner, wherein the corrugated plate is made of a sheet metal and has a uniform waved shape of ascending and descending waves with wave crests , wherein the hole pattern is furthermore provided for the passage of a gas substantially transversely to the waved shape, wherein in the plan view of the corrugated plate a direction of flow of the corrugated plate is aligned perpendicular to an edge of the corrugated plate and to the wave crests , characterised in that the at least one first row of holes has, in the flow direction of the gas, a respective first cross-sectional opening in a respective ascending wave , which is larger than a respective second cross-sectional opening of the at least one first row of holes in a respective descending wave .
A lens system 700 for a compact digital camera, the lens system having a pop-out state and a collapsed state and comprising: an image sensor 704 having a sensor diagonal SD; and a lens with N lens elements L1-LN arranged along a lens optical axis OA starting with L1 from an object side towards an image side, each lens element Li having a respective clear aperture diameter DALi wherein 1≤ i ≤ N, and having in the pop-out state a field of view FOV and a f number (f/#), a lens thickness TLens, a back focal length BFL, an effective focal length EFL, and a total track length TTL <15mm, wherein the lens system is configured to switch from a pop-out state to a collapsed state and vice versa by collapsing BFL to a collapsed back focal length c-BFL, wherein BFL > 0.2 x TTL, wherein a ratio c-TTL/SD < 0.8, wherein c-TTL represents a collapsed total track length, and wherein f/#:51.6, characterized in that SD≥12mm. an image sensor 704 having a sensor diagonal SD; and a lens with N lens elements L1-LN arranged along a lens optical axis OA starting with L1 from an object side towards an image side, each lens element Li having a respective clear aperture diameter DALi wherein 1≤ i ≤ N, and having in the pop-out state a field of view FOV and a f number (f/#), a lens thickness TLens, a back focal length BFL, an effective focal length EFL, and a total track length TTL <15mm, wherein the lens system is configured to switch from a pop-out state to a collapsed state and vice versa by collapsing BFL to a collapsed back focal length c-BFL, wherein BFL > 0.2 x TTL, wherein a ratio c-TTL/SD < 0.8, wherein c-TTL represents a collapsed total track length, and wherein f/#:51.6, characterized in that SD≥12mm.
Vehicle comprising a) a LiDAR sensor which emits laser pulses having a wavelength in the range from 800 to 2500 nm and b) a cover partially or completely surrounding the LiDAR sensor having a substrate layer comprising a region made of a thermoplastic composition based on aromatic polycarbonate, polyester carbonate and/or polymethyl methacrylate, wherein the composition has a light transmission in the range from 380 to 780 nm of less than 25.0% determined at a layer thickness of 4 mm according to DIN ISO 13468-2: 2006 (D65, 10°) and the region of the substrate layer made of the thermoplastic composition in its respective thickness has a permeability to IR radiation in the range from 800 nm to 2500 nm of at least 40% determined according to DIN ISO 13468-2:2006. a) a LiDAR sensor which emits laser pulses having a wavelength in the range from 800 to 2500 nm and b) a cover partially or completely surrounding the LiDAR sensor having a substrate layer comprising a region made of a thermoplastic composition based on aromatic polycarbonate, polyester carbonate and/or polymethyl methacrylate, wherein the composition has a light transmission in the range from 380 to 780 nm of less than 25.0% determined at a layer thickness of 4 mm according to DIN ISO 13468-2: 2006 (D65, 10°) and the region of the substrate layer made of the thermoplastic composition in its respective thickness has a permeability to IR radiation in the range from 800 nm to 2500 nm of at least 40% determined according to DIN ISO 13468-2:2006.
A network interface device configured to be coupled to an end-point-protection platform, EPP, hosted on a base system logic, the network interface device comprising: a memory for storing a first set of instructions and one or more processors configured to execute the first set of instructions to: a) receive, from the EPP via a direct communication, a report message comprising information about a security threat detected by the EPP and a security state of the base system logic, and wherein the direct communication is enabled by connecting the network interface device to the base system logic via an I/O bus or a virtual port of an I/O bus; b) instruct, in response to the report message, the network interface device to perform one or more actions comprising at least one of the following: suspending network traffic associated with the detected security threat, redirecting a network traffic associated with the detected security threat to a destination address and destination port based on a predetermined deception based technology, sending a beacon message to the network related to the security state of the base system logic; c) monitor, control, or both monitor and control network traffic activity; and d) generate an alert comprising information about a threat detected by the network interface device and forward the alert to the EPP via the direct communication. a) receive, from the EPP via a direct communication, a report message comprising information about a security threat detected by the EPP and a security state of the base system logic, and wherein the direct communication is enabled by connecting the network interface device to the base system logic via an I/O bus or a virtual port of an I/O bus; b) instruct, in response to the report message, the network interface device to perform one or more actions comprising at least one of the following: suspending network traffic associated with the detected security threat, redirecting a network traffic associated with the detected security threat to a destination address and destination port based on a predetermined deception based technology, sending a beacon message to the network related to the security state of the base system logic; c) monitor, control, or both monitor and control network traffic activity; and d) generate an alert comprising information about a threat detected by the network interface device and forward the alert to the EPP via the direct communication.