mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum grip for an end effector , comprising: at least one vacuum draw eyelet communicatively associated with a vacuum, and having a groove substantially circumferentially thereabout; characterized in that the vacuum grip further comprises; an extending foam cup including a receiving inner circumference suitable for receiving therein at least the groove; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending foam cup , the two legs being suitable to compress the receiving inner circumference into frictional contact with the groove. at least one vacuum draw eyelet communicatively associated with a vacuum, and having a groove substantially circumferentially thereabout; characterized in that the vacuum grip further comprises; an extending foam cup including a receiving inner circumference suitable for receiving therein at least the groove; and a wire clip comprising two legs inserted along a cross-sectional plane of the extending foam cup , the two legs being suitable to compress the receiving inner circumference into frictional contact with the groove.
Method for making dimers, comprising at least the steps of: (i) providing a first polypeptide, wherein said first polypeptide comprises - at least one VHH and - a C-terminal extension comprising a cysteine moiety; (ii) providing a second polypeptide, wherein said second polypeptide comprises - at least one VHH and - a C-terminal extension comprising a cysteine moiety; and (iii) oxidizing the thiol moiety of said cysteine moiety of said first polypeptide and the thiol moiety of said cysteine moiety of said second polypeptide at pH 6.5 to pH 7.5 to a disulfide derivative cystine; characterized in that the integrity of the VHHs is maintained and said cystine is the only intermolecular disulfide bond present in the dimer; thereby making said dimers. (i) providing a first polypeptide, wherein said first polypeptide comprises - at least one VHH and - a C-terminal extension comprising a cysteine moiety; - at least one VHH and - a C-terminal extension comprising a cysteine moiety; (ii) providing a second polypeptide, wherein said second polypeptide comprises - at least one VHH and - a C-terminal extension comprising a cysteine moiety; and - at least one VHH and - a C-terminal extension comprising a cysteine moiety; and (iii) oxidizing the thiol moiety of said cysteine moiety of said first polypeptide and the thiol moiety of said cysteine moiety of said second polypeptide at pH 6.5 to pH 7.5 to a disulfide derivative cystine;
Air conditioning device of an engine compartment of a vehicle with an engine, the device with a transcritical operating cycle, the device comprising a circuit conveying a refrigerant and successively connecting - the outlet of a compressor ; - a gas cooler ; - the cold circuit of an intermediate cooler ; - an expansion valve ; - a second exchanger having a volume for circulation of a coolant in heat exchange with the refrigerant ; - the inlet of the hot circuit of the intermediate cooler , the outlet of the hot circuit of the intermediate cooler being connected to the inlet of the compressor , the air conditioning device being characterized in that the second exchanger comprises a volume (43.1) for expansion of the coolant , said exchanger comprising a body of substantially parallelepipedal shape delimiting an interior volume containing a tubular bundle , the body comprises a first moulded element of substantially parallelepipedal shape to which is attached a substantially planar second element , wherein the first element comprises a first internal peripheral groove and an identical second groove , wherein the grooves and are respectively situated at the upper end and at the lower end of the first element , wherein the second element comprises a first tubular connector and a second tubular connector leading into the volume respectively facing the grooves , wherein the flanks of the manifolds and of the tubular bundle are respectively placed in the grooves and of the first element . - the outlet of a compressor ; - a gas cooler ; - the cold circuit of an intermediate cooler ; - an expansion valve ; - a second exchanger having a volume for circulation of a coolant in heat exchange with the refrigerant ; - the inlet of the hot circuit of the intermediate cooler , the outlet of the hot circuit of the intermediate cooler being connected to the inlet of the compressor ,
System for updating a manufacturing execution system (MES) database to include an MES entity corresponding to equipment modeled by a corresponding supervisory control and data acquisition (SCADA) system object, the system being characterized in that it is comprising: an entity model builder which is adapted to extract MES entity configuration information from a utilization capability object (UCO, 110) configured for an application object corresponding to plant equipment of interest in a SCADA system and attached as a child object to the application object; wherein the entity model builder is adapted to build , via calls to interface functionality on the MES database and using the MES entity configuration information extracted from the UCO , an MES entity in the MES database corresponding to the application object, thereby creating a runtime link between the UCO and the MES entity for updating the MES entity via equipment and reason codes generated by the UCO in response to process data received by the application object with which the UCO is associated. an entity model builder which is adapted to extract MES entity configuration information from a utilization capability object (UCO, 110) configured for an application object corresponding to plant equipment of interest in a SCADA system and attached as a child object to the application object; wherein the entity model builder is adapted to build , via calls to interface functionality on the MES database and using the MES entity configuration information extracted from the UCO , an MES entity in the MES database corresponding to the application object, thereby creating a runtime link between the UCO and the MES entity for updating the MES entity via equipment and reason codes generated by the UCO in response to process data received by the application object with which the UCO is associated.
An exhaust gas heating unit for an exhaust gas system of an internal combustion engine, comprising at least one electrically conductive heating conductor element , constructed from bent flat strip material with a wave-like structure, wherein : - the at least one heating conductor element is arranged with a meandering form, wherein mutually adjacent heating conductor element length regions arranged in an electrically insulated manner with respect to one another are provided by meandering sections which run next to one another and are connected to one another in transitional regions , or - a plurality of heating conductor elements are provided, which are constructed from bent flat strip material with a wave-like structure and arranged in an electrically insulated manner with respect to one another providing heating conductor element length regions, extending substantially in a straight elongated way and running adjacent to another, characterized in that the heating conductor element length regions which run adjacent to one another are electrically insulated with respect to one another by arranging electrically insulating, flat-strip-type material between them. - the at least one heating conductor element is arranged with a meandering form, wherein mutually adjacent heating conductor element length regions arranged in an electrically insulated manner with respect to one another are provided by meandering sections which run next to one another and are connected to one another in transitional regions , or - a plurality of heating conductor elements are provided, which are constructed from bent flat strip material with a wave-like structure and arranged in an electrically insulated manner with respect to one another providing heating conductor element length regions, extending substantially in a straight elongated way and running adjacent to another,
A system for ablation, the system comprising: a memory , which is configured to store a pre-determined relation between lesion size and amount of ablative energy, for each of one or more selected temperatures (T 1 , T 2 , T 3 ); and a processor which is configured to: receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. a memory , which is configured to store a pre-determined relation between lesion size and amount of ablative energy, for each of one or more selected temperatures (T 1 , T 2 , T 3 ); and a processor which is configured to: receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered.
A process for producing a magnesium aluminate spinel comprising the following steps: i) preparing a magnesium suspension containing a magnesium compound; ii) preparing an aluminum suspension containing an aluminum compound; iii) feeding the magnesium suspension and aluminum suspension independently into a spray dryer nozzle to form a mixed magnesium, aluminum suspension ; iv) feeding the mixed magnesium, aluminium suspension from the spray dryer nozzle into a spray dryer to form a mixed magnesium and aluminum compound; and v) calcining the mixed magnesium and aluminum compound to generate a magnesium aluminate spinel. i) preparing a magnesium suspension containing a magnesium compound; ii) preparing an aluminum suspension containing an aluminum compound; iii) feeding the magnesium suspension and aluminum suspension independently into a spray dryer nozzle to form a mixed magnesium, aluminum suspension ; iv) feeding the mixed magnesium, aluminium suspension from the spray dryer nozzle into a spray dryer to form a mixed magnesium and aluminum compound; and v) calcining the mixed magnesium and aluminum compound to generate a magnesium aluminate spinel.
A print component integrated circuitry package comprising: a plurality of temperature sensors where each of the plurality of the temperature sensors is disposed in a corresponding temperature region of an integrated circuitry , wherein the temperature regions include an end region and a middle region , and the end region is closer to an edge of the integrated circuitry in a lengthwise direction than to the middle region of the integrated circuitry ; an analog sense bus which can be conductively connected to all of the plurality of temperature sensors and is conductively connected to an external sensor pad that is to connect to a corresponding print controller contact ; a heating element located on the integrated circuitry and configured to raise the temperature on the end region to match a temperature detected from a middle temperature sensor disposed in the middle region of the integrated circuitry ; and the integrated circuitry comprising an array of print nozzles ; characterized in that : a temperature sensor disposed in the end region , the heating element and a nearest nozzle of the nozzle array are equidistant from one another, wherein the nearest nozzle is closer to the edge of the lengthwise dimension of the integrated circuitry than other nozzles. a plurality of temperature sensors where each of the plurality of the temperature sensors is disposed in a corresponding temperature region of an integrated circuitry , wherein the temperature regions include an end region and a middle region , and the end region is closer to an edge of the integrated circuitry in a lengthwise direction than to the middle region of the integrated circuitry ; an analog sense bus which can be conductively connected to all of the plurality of temperature sensors and is conductively connected to an external sensor pad that is to connect to a corresponding print controller contact ; a heating element located on the integrated circuitry and configured to raise the temperature on the end region to match a temperature detected from a middle temperature sensor disposed in the middle region of the integrated circuitry ; and the integrated circuitry comprising an array of print nozzles ; characterized in that : a temperature sensor disposed in the end region , the heating element and a nearest nozzle of the nozzle array are equidistant from one another, wherein the nearest nozzle is closer to the edge of the lengthwise dimension of the integrated circuitry than other nozzles. a temperature sensor disposed in the end region , the heating element and a nearest nozzle of the nozzle array are equidistant from one another, wherein the nearest nozzle is closer to the edge of the lengthwise dimension of the integrated circuitry than other nozzles.
A nanometric magnetorheological fluid, comprising: flake-shaped nanometric magnetic particles, wherein the flake-shaped magnetic particles have a thickness of less than 100 nanometers; and a fluid for use as a carrier liquid, wherein the magnetic particles are dispersed in the fluid. flake-shaped nanometric magnetic particles, wherein the flake-shaped magnetic particles have a thickness of less than 100 nanometers; and a fluid for use as a carrier liquid, wherein the magnetic particles are dispersed in the fluid.
A method for generating a spatially barcoded array, the method comprising: (a) providing an array comprising a plurality of immobilized surface probes, wherein an immobilized surface probe of the plurality of immobilized surface probes comprises an oligonucleotide, and wherein each immobilized surface probe of the plurality of immobilized surface probes optionally comprises a common sequence; (b) exposing the array to a concentration gradient of a first deoxyribonucleotide triphosphate (dNTP), wherein the concentration gradient of the first dNTP varies along a first direction; and (c) adding one or more first nucleotides derived from the first dNTP to the oligonucleotide, wherein the number of the one or more first nucleotides that are added to the oligonucleotide correlates with the concentration of the first dNTP in the concentration gradient at the location of the immobilized surface probe, thereby generating the spatially barcoded array. (a) providing an array comprising a plurality of immobilized surface probes, wherein an immobilized surface probe of the plurality of immobilized surface probes comprises an oligonucleotide, and wherein each immobilized surface probe of the plurality of immobilized surface probes optionally comprises a common sequence; (b) exposing the array to a concentration gradient of a first deoxyribonucleotide triphosphate (dNTP), wherein the concentration gradient of the first dNTP varies along a first direction; and (c) adding one or more first nucleotides derived from the first dNTP to the oligonucleotide, wherein the number of the one or more first nucleotides that are added to the oligonucleotide correlates with the concentration of the first dNTP in the concentration gradient at the location of the immobilized surface probe, thereby generating the spatially barcoded array.
A processed, solid soya protein product derived from soya bean meal (SBM), obtainable by a water leaching method, which method comprises the following sequence of steps: 1) providing an initial mixture comprising milled or flaked or otherwise disintegrated soya bean material (SBM) and water; 2) leaching the initial mixture under conditions where the dry matter amount in the initial mixture is between 8 and 20 % by weight, for 0.15 to 6 hours at a temperature of 5 to 65°C and at a pH of 3.5 to 5.5; 3) separating the leached mixture in a liquid extract and a first solid fraction; 4) collecting the first solid fraction; 5) optionally conveying the liquid extract from step 3) through means for further separation of solids, such as decanter centrifuging, thereby recovering a second solid fraction, and combining the second solid fraction with the first solid fraction; and 6) drying the first solid fraction or the combined solid fractions from steps 4) and 5) to a dry matter of at least 90 %; wherein the total amount of spent water in the method calculated from the initial SBM starting material is 10 times the amount of SBM or less; and which protein product comprises 65-75 % protein by weight of dry matter, has a protein to potassium weight ratio of at least 65:1 and a dry matter content of at least 90 %, which product comprises less than 0.1 % sodium, such as less than 0.01 % or less than 0.005 % or less than 0.001 % by weight, and wherein at least 65 % by weight of the indigestible oligosaccharide content of the SBM wherefrom the protein product is derived has been removed. 1) providing an initial mixture comprising milled or flaked or otherwise disintegrated soya bean material (SBM) and water; 2) leaching the initial mixture under conditions where the dry matter amount in the initial mixture is between 8 and 20 % by weight, for 0.15 to 6 hours at a temperature of 5 to 65°C and at a pH of 3.5 to 5.5; 3) separating the leached mixture in a liquid extract and a first solid fraction; 4) collecting the first solid fraction; 5) optionally conveying the liquid extract from step 3) through means for further separation of solids, such as decanter centrifuging, thereby recovering a second solid fraction, and combining the second solid fraction with the first solid fraction; and 6) drying the first solid fraction or the combined solid fractions from steps 4) and 5) to a dry matter of at least 90 %; wherein the total amount of spent water in the method calculated from the initial SBM starting material is 10 times the amount of SBM or less; and which protein product comprises 65-75 % protein by weight of dry matter, has a protein to potassium weight ratio of at least 65:1 and a dry matter content of at least 90 %, which product comprises less than 0.1 % sodium, such as less than 0.01 % or less than 0.005 % or less than 0.001 % by weight, and wherein at least 65 % by weight of the indigestible oligosaccharide content of the SBM wherefrom the protein product is derived has been removed.
A machined article comprising: a first member including an inner peripheral portion formed by a hole; and a second member including an outer peripheral portion fitted along a fitting direction into the inner peripheral portion of the first member, wherein at least either an inner peripheral recess to be formed in part of the inner peripheral portion of the first member or an outer peripheral recess to be formed in part of the outer peripheral portion of the second member is formed, a slit penetrating from a front side to an opposite back side of the second member and first member is formed at a position to which the inner peripheral recess or the outer peripheral recess corresponds, between the first member and the second member, the article being characterized in that an outer side surface of the inner peripheral recess at an outer side farthest from the inner peripheral portion or an inner side surface of the outer peripheral recess at an inner side farthest from the outer peripheral portion intersects with the fitting direction when fitting the second member into the first member. a first member including an inner peripheral portion formed by a hole; and a second member including an outer peripheral portion fitted along a fitting direction into the inner peripheral portion of the first member, wherein at least either an inner peripheral recess to be formed in part of the inner peripheral portion of the first member or an outer peripheral recess to be formed in part of the outer peripheral portion of the second member is formed, a slit penetrating from a front side to an opposite back side of the second member and first member is formed at a position to which the inner peripheral recess or the outer peripheral recess corresponds, between the first member and the second member, the article being characterized in that an outer side surface of the inner peripheral recess at an outer side farthest from the inner peripheral portion or an inner side surface of the outer peripheral recess at an inner side farthest from the outer peripheral portion intersects with the fitting direction when fitting the second member into the first member.
Device for adjusting printing heads of a printing bar , characterized in that motors are disposed in a row and supported for joint movement, in that every motor carries a gear and in that every gear is successively engageable with at least two respective gears .