mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of biochar, in which biogenic starting material located in retorts is pyrolyzed and the combustible pyrolysis gases produced by the pyrolyses are burned in a combustion chamber to generate hot flue gases, wherein the retorts are introduced one after another into at least one reactor chamber and the pyrolyses are carried out therein by means of the flue gases conducted into the at least one reactor chamber , wherein the retorts are at least largely sealed off from the entry of hot flue gases, and the heating of the starting materials located in the retorts by means of the flue gases by heating the retorts is effected only indirectly through a partition wall , and wherein a space enclosing the respective retort is an annular space between the partition wall and an outer wall of the retort , characterized in that the pyrolysis gases are conducted through the annular space to the combustion chamber , and in that the outflowing pyrolysis gases and the outer wall of the retort are heated by the flue gases.
A method, comprising: spawning within a server system a server process that communicates over a network ; receiving node graph data and input attributes at the server system from a proxy node in a node graph application instance executed by a computing device, wherein the node graph data comprise one or more nodes preceding the proxy node in a node graph of the node graph application instance and connections between the one or mode nodes and the proxy node, wherein the input attributes comprise a copy of user inputs associated with the one or more nodes preceding the proxy node in the node graph, and wherein the proxy node is a computer module used to intercept updates to the node graph for evaluation; evaluating the node graph data at the server process based on the input attributes, wherein evaluating the node graph data comprises evaluating a copy of the one or more nodes maintained on the server system using at least the copy of the user inputs; and transmitting the evaluated node graph data over the network to the proxy node for display on a viewport. spawning within a server system a server process that communicates over a network ; receiving node graph data and input attributes at the server system from a proxy node in a node graph application instance executed by a computing device, wherein the node graph data comprise one or more nodes preceding the proxy node in a node graph of the node graph application instance and connections between the one or mode nodes and the proxy node, wherein the input attributes comprise a copy of user inputs associated with the one or more nodes preceding the proxy node in the node graph, and wherein the proxy node is a computer module used to intercept updates to the node graph for evaluation; evaluating the node graph data at the server process based on the input attributes, wherein evaluating the node graph data comprises evaluating a copy of the one or more nodes maintained on the server system using at least the copy of the user inputs; and transmitting the evaluated node graph data over the network to the proxy node for display on a viewport.
Driver assistance system for a vehicle for detecting light conditions in the vehicle, comprising: a sensor arrangement , configured for capturing sensor data; and a control device , configured for ascertaining whether the vision of a driver of the vehicle is negatively influenced by an interfering light source external to the vehicle; wherein the sensor data comprise at least one image and the control device is furthermore configured to calculate coordinates of the interfering light sources on the basis of the at least one image, and wherein the control device is configured to take measures in order to reduce a negative influence on the driver caused by the interfering light source, if a negative influence has been ascertained, characterized in that the control device is furthermore configured to calculate the negative influence further owing to a reflection of the interfering light sources at a part of the vehicle. a sensor arrangement , configured for capturing sensor data; and a control device , configured for ascertaining whether the vision of a driver of the vehicle is negatively influenced by an interfering light source external to the vehicle; wherein the sensor data comprise at least one image and the control device is furthermore configured to calculate coordinates of the interfering light sources on the basis of the at least one image, and wherein the control device is configured to take measures in order to reduce a negative influence on the driver caused by the interfering light source, if a negative influence has been ascertained, characterized in that the control device is furthermore configured to calculate the negative influence further owing to a reflection of the interfering light sources at a part of the vehicle.
A radio equipment , comprising: a memory to store a Radio Virtual Machine, RVM and a processor coupled to the memory to run the RVM to form a software execution environment comprising a selectable RVM class of a plurality of RVM classes, wherein each RVM class of the plurality of RVM classes corresponds to a respectively different level of reconfigurability of low-level parameters of the RVM, said low-level parameters including a spectral mask to be used by the RVM, wherein the RVM is reconfigured at the level of reconfigurability associated with the selectable RVM class . a memory to store a Radio Virtual Machine, RVM and a processor coupled to the memory to run the RVM to form a software execution environment comprising a selectable RVM class of a plurality of RVM classes, wherein each RVM class of the plurality of RVM classes corresponds to a respectively different level of reconfigurability of low-level parameters of the RVM, said low-level parameters including a spectral mask to be used by the RVM, wherein the RVM is reconfigured at the level of reconfigurability associated with the selectable RVM class .
A durable protective cover for removable installation over a drain , the protective cover comprising: a durable backing layer ; and a pliable, tacky sealing layer structured and arranged to block spills from entering the drain , wherein the protective cover has a first end comprising a first stiffening rod extending over at least a portion thereof and a second end opposing the first end comprising a second stiffening rod extending over at least a portion thereof, wherein the first stiffening rod is located at least partially within a first pocket running along the first end of the protective cover , the second stiffening rod is located at least partially within a second pocket running along the second end of the protective cover , and a portion of each of the first and second stiffening rod is exposed outside of the first and second pockets to provide a handle. a durable backing layer ; and a pliable, tacky sealing layer structured and arranged to block spills from entering the drain , wherein the protective cover has a first end comprising a first stiffening rod extending over at least a portion thereof and a second end opposing the first end comprising a second stiffening rod extending over at least a portion thereof, wherein the first stiffening rod is located at least partially within a first pocket running along the first end of the protective cover , the second stiffening rod is located at least partially within a second pocket running along the second end of the protective cover , and a portion of each of the first and second stiffening rod is exposed outside of the first and second pockets to provide a handle.
An adapter device for adapting civil electrical plugs to industrial sockets, comprising: - a connector body having a longitudinal axis (A) and having a plug portion and a socket portion located on opposite sides of a plane orthogonal to said longitudinal axis (A), and - a casing comprising two shells arranged on opposite sides with respect to a plane passing through said longitudinal axis (A), wherein said shells have respective front sections that enclose the socket portion of the connector body , respective central sections adapted to enclose a civil plug engaged in the socket portion of the connector body , and respective rear sections forming a hole for the passage of an electric cable connected to the civil plug , wherein said casing comprises a ring-shaped closing element which fastens said shells together in the closed position, characterized in that the closing element is in contact with the outer surfaces of the central portions of said shells , and is provided with at least two elastically deformable teeth which snap-engage respective seats formed on the outer surfaces of the front sections of said shells . - a connector body having a longitudinal axis (A) and having a plug portion and a socket portion located on opposite sides of a plane orthogonal to said longitudinal axis (A), and - a casing comprising two shells arranged on opposite sides with respect to a plane passing through said longitudinal axis (A), wherein said shells have respective front sections that enclose the socket portion of the connector body , respective central sections adapted to enclose a civil plug engaged in the socket portion of the connector body , and respective rear sections forming a hole for the passage of an electric cable connected to the civil plug , wherein said casing comprises a ring-shaped closing element which fastens said shells together in the closed position, characterized in that the closing element is in contact with the outer surfaces of the central portions of said shells , and is provided with at least two elastically deformable teeth which snap-engage respective seats formed on the outer surfaces of the front sections of said shells . wherein said casing comprises a ring-shaped closing element which fastens said shells together in the closed position, characterized in that the closing element is in contact with the outer surfaces of the central portions of said shells , and is provided with at least two elastically deformable teeth which snap-engage respective seats formed on the outer surfaces of the front sections of said shells .
A reusable mold for making a contact lens, comprising a first mold half having a first mold surface in contact with a lens forming composition and a second mold half having a second mold surface in contact with the lens forming composition, wherein the first mold half and the second mold half are configured to receive each other such that a cavity is formed between the first mold surface and the second mold surface , wherein the cavity defines the shape of a contact lens to be molded, wherein the lens forming composition is polymerizable and/or crosslinkable by an actinic radiation, characterized in that at least one of the mold halves is made from an oxide glass having a Knoop Hardness HK less than 350, in accordance with ISO 9385:1990.
An illumination module for a near-to-eye display system, the illumination module comprising: a circuit board ; an edge-emitting semiconductor-based light source mounted to the circuit board , to emit light in a first illumination pattern; an encasing mounted to the circuit board ; and one or more optical surfaces at least partially contained within the encasing , the one or more optical surfaces including a single optical surface configured to receive, condition, and redirect the light from the edge-emitting semiconductor-based light source such that the one or more optical surfaces are collectively configured to output the conditioned and redirected light from the illumination module in a second illumination pattern different from the first illumination pattern, wherein the single optical surface is further configured to collimate the light and to reflectively redirect the light, wherein the one or more optical surfaces are comprised in one or more optical elements, the one or more optical elements including a parabolic mirror contained within the encasing, to receive the light from the edge-emitting semiconductor-based light source and to collimate and redirect the light received from the edge-emitting semiconductor-based light source to a camera, such that the second illumination pattern includes the collimated and redirected light, and wherein a top surface of the circuit board comprises a cavity configured to allow the light to expand into the cavity . a circuit board ; an edge-emitting semiconductor-based light source mounted to the circuit board , to emit light in a first illumination pattern; an encasing mounted to the circuit board ; and one or more optical surfaces at least partially contained within the encasing , the one or more optical surfaces including a single optical surface configured to receive, condition, and redirect the light from the edge-emitting semiconductor-based light source such that the one or more optical surfaces are collectively configured to output the conditioned and redirected light from the illumination module in a second illumination pattern different from the first illumination pattern, wherein the single optical surface is further configured to collimate the light and to reflectively redirect the light, wherein the one or more optical surfaces are comprised in one or more optical elements, the one or more optical elements including a parabolic mirror contained within the encasing, to receive the light from the edge-emitting semiconductor-based light source and to collimate and redirect the light received from the edge-emitting semiconductor-based light source to a camera, such that the second illumination pattern includes the collimated and redirected light, and wherein a top surface of the circuit board comprises a cavity configured to allow the light to expand into the cavity .
An apparatus for near field communication, NFC, comprising: means for generating a signal pulse based on a first clock signal, the means for generating comprising at least one of the group of ceramic oscillators, ring oscillators and RC oscillators configured to generate the first clock signal; means for polling for a presence of an NFC transponder using the signal pulse; at least one crystal oscillator configured to generate a second clock signal used for generating a carrier signal for communication between the apparatus and the NFC transponder , wherein the means for generating is configured to generate the first clock signal having a different frequency and a lower frequency accuracy than the second clock signal. means for generating a signal pulse based on a first clock signal, the means for generating comprising at least one of the group of ceramic oscillators, ring oscillators and RC oscillators configured to generate the first clock signal; means for polling for a presence of an NFC transponder using the signal pulse; at least one crystal oscillator configured to generate a second clock signal used for generating a carrier signal for communication between the apparatus and the NFC transponder , wherein the means for generating is configured to generate the first clock signal having a different frequency and a lower frequency accuracy than the second clock signal.
A clock monitoring circuit, comprising: a clock divider component to divide an output of a clock to be monitored; a plurality of cascaded flops in which a clock input of each flop is the same as the clock to be monitored, and a data input of each flop is driven by the divided version of the clock being monitored so that the data input to each of the plurality of cascaded flops is delayed relative to other cascaded flops via one or more programmable delay elements ; an encoder coupled to outputs of the cascaded flops and configured to generate an encoded output value that represents the outputs of the cascaded flops ; a comparator configured to generate and store an interrupt when the encoded output value does not match a programmed value; and an error correction code generator configured to generate and store an error correction code for each stored interrupt. a clock divider component to divide an output of a clock to be monitored; a plurality of cascaded flops in which a clock input of each flop is the same as the clock to be monitored, and a data input of each flop is driven by the divided version of the clock being monitored so that the data input to each of the plurality of cascaded flops is delayed relative to other cascaded flops via one or more programmable delay elements ; an encoder coupled to outputs of the cascaded flops and configured to generate an encoded output value that represents the outputs of the cascaded flops ; a comparator configured to generate and store an interrupt when the encoded output value does not match a programmed value; and an error correction code generator configured to generate and store an error correction code for each stored interrupt.
Electric machine , in particular for the motor-operated adjustment of movable parts in a motor vehicle, comprising a stator , into which a rotor is inserted, wherein the stator has two radially opposite permanent magnets , which are arranged in a pole housing forming a magnetic return path, and the pole housing has flattened regions between the two permanent magnets , with the pole housing wall forming two radially opposite magnetic consequent poles on said regions, wherein each of the two flattened regions of the pole housing has two beads which extend approximately parallel to one another in the axial direction and which form the inner contour of the consequent poles and the transition to holding regions of the permanent magnets , characterized in that the maximum radial dimension of the pole housing between the two mutually opposite flattened regions , axially in the region of the consequent poles , forms a width across flats for the installation space of the electric machine , which is at most 35 mm, and the pole housing is closed at a first axial end , wherein a pole housing base is formed in one piece with the pole housing , and a receptacle for a bearing of the rotor is arranged at this end , wherein the opposite second axial end is formed so as to be open and has a flange , which is connectable to a further housing part , wherein a connecting region axially adjoins the flange and an axial transition region is formed between the connecting region and the beads , in which axial transition region the maximum dimension between the flattened sides increases along the axial direction , starting from the axial beads with inner edges of the consequent pole towards an inner width of the connecting region with two inner faces which are opposite one another approximately parallel to one another, wherein the permanent magnets are fixed in the pole housing by means of magnetic holding springs , the two limbs of said magnetic holding springs each pressing the opposite permanent magnets against the inner wall of the pole housing , wherein a cavity is formed between the end sides of the permanent magnets in the circumferential direction and the beads , into which cavity the limbs engage.
A high-strength hot-dipped steel sheet having excellent coating adhesion, the high-strength hot-dipped steel sheet comprising: a steel sheet having a chemical composition, and a coating layer disposed on the steel sheet, the chemical composition including, in mass%, C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.0% or less, Mn: 0.2% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.40% or less, and optionally one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, W: 0.001% or greater and 0.200% or less, and B: 0.0003% or greater and 0.01% or less, with the balance being Fe and incidental impurities, the coating layer having a coating weight per side of 30 to 90 g/m 2 , wherein the coating layer contains exfoliated base steel in an amount of 0.3 to 1.5 g/m 2 . a steel sheet having a chemical composition, and a coating layer disposed on the steel sheet, the chemical composition including, in mass%, C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.0% or less, Mn: 0.2% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.40% or less, and optionally one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, W: 0.001% or greater and 0.200% or less, and B: 0.0003% or greater and 0.01% or less, with the balance being Fe and incidental impurities, C: 0.02% or greater and 0.30% or less, Si: 0.01% or greater and 2.0% or less, Mn: 0.2% or greater and 3.0% or less, P: 0.08% or less, S: 0.02% or less, and Al: 0.001% or greater and 0.40% or less, and optionally one or more of Ti: 0.01% or greater and 0.40% or less, Nb: 0.001% or greater and 0.200% or less, V: 0.001% or greater and 0.500% or less, Mo: 0.01% or greater and 0.50% or less, W: 0.001% or greater and 0.200% or less, and B: 0.0003% or greater and 0.01% or less, with the balance being Fe and incidental impurities, the coating layer having a coating weight per side of 30 to 90 g/m 2 , wherein the coating layer contains exfoliated base steel in an amount of 0.3 to 1.5 g/m 2 .
A liquid-phase process for the production of H-D-Arg-(2,6-Dimethyl)Tyr-Lys-Phe-NH 2 of formula (I), in the form of the trifluoroacetic acid salt, which comprises the following steps: - coupling compound (II) H-Phe-NH 2 : with compound (III) Z-Lys(Boc)-OH: to obtain a compound of formula (IV), Z-Lys(Boc)-Phe-NH 2 - reacting compound (IV) with hydrogen and methanesulfonic acid (V) MeSO 3 H (V) in the presence of a catalyst to obtain the free amine salt (VI) MeSO 3 H.H-Lys(Boc)-Phe-N 2 : - reacting salt (VI) with the protected amino acid Z-Dmt(Boc)-OH (VII) to obtain the protected tripeptide Z-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (VIII): - treating compound (VIII) with hydrogen and methanesulfonic acid (V) to obtain the corresponding salt MeSO 3 .H-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (IX): - coupling the acid salt (IX) with Z-D-Arg-ONa (X) to form the protected tetrapeptide Boc-D-Arg-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (XI): - deprotecting compound (XI) to obtain the tetrapeptide H-D-Arg-Dmt-Lys-Phe-NH 2 (I) and further salifying it with trifluoroacetic acid in solvents. - coupling compound (II) H-Phe-NH 2 : with compound (III) Z-Lys(Boc)-OH: to obtain a compound of formula (IV), Z-Lys(Boc)-Phe-NH 2 - reacting compound (IV) with hydrogen and methanesulfonic acid (V) MeSO 3 H (V) in the presence of a catalyst to obtain the free amine salt (VI) MeSO 3 H.H-Lys(Boc)-Phe-N 2 : - reacting salt (VI) with the protected amino acid Z-Dmt(Boc)-OH (VII) to obtain the protected tripeptide Z-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (VIII): - treating compound (VIII) with hydrogen and methanesulfonic acid (V) to obtain the corresponding salt MeSO 3 .H-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (IX): - coupling the acid salt (IX) with Z-D-Arg-ONa (X) to form the protected tetrapeptide Boc-D-Arg-Dmt(Boc)-Lys(Boc)-Phe-NH 2 (XI): - deprotecting compound (XI) to obtain the tetrapeptide H-D-Arg-Dmt-Lys-Phe-NH 2 (I) and further salifying it with trifluoroacetic acid in solvents.