mhurhangee/ep-ind-claims huggingface dataset:
Control-panel assembly for household appliances and the like, which comprises: - a substantially shell-shaped, outer dashboard which is structured for being coupled to the casing of the household appliance; - an internal printed circuit board which is provided with one or more display devices and/or with one or more manually-operated input devices; and - at least one substantially basin-shaped, rigid protecting box, which houses all or part of said internal printed circuit board, and is structured for being firmly fixed to the rear face of the outer dashboard; the control-panel assembly being characterized in that said outer dashboard is provided with at least one protruding appendix that sticks out of the rear face of the outer dashboard and has, on its top, a coupling ridge which is provided with a number of consecutive coupling segments that are tilted one another and lay substantially on a same reference laying plane; and in that said protecting box is provided with a corresponding cap appendix which is dimensioned for resting onto the top of said protruding appendix, and which has at least one coupling portion which is shaped for stably matching with any one of the consecutive coupling segments of the coupling ridge of said protruding appendix, so as to allow a discrete adjustment of the spatial orientation of the protecting box with respect to the rear face of the outer dashboard according to the coupling segment abutted. - a substantially shell-shaped, outer dashboard which is structured for being coupled to the casing of the household appliance; - an internal printed circuit board which is provided with one or more display devices and/or with one or more manually-operated input devices; and - at least one substantially basin-shaped, rigid protecting box, which houses all or part of said internal printed circuit board, and is structured for being firmly fixed to the rear face of the outer dashboard;
A method for modifying a property of a protein, comprising (a) selecting 1000 or more pairs of genes which are orthologs to each other from genes encoded by genomes of a first microorganism and a second microorganism, respectively, wherein the second microorganism closely related to the first microorganism and shows difference in a certain optimum growth condition when compared with the first microorganism, (b) detecting amino acid substitutions present between an amino acid sequence encoded by a gene of the first microorganism and an amino acid sequence encoded by a gene of the second microorganism for each pair of the selected genes, and compiling the detected amino acid substitutions to calculate the frequency of amino acid substitution for each amino acid substitution type, wherein a correction is made by subtracting, from a number of a certain amino acid substitution, a number of amino acid substitution of the direction reverse to the certain amino acid substitution, (c) identifying the amino acid substitutions which occur at a high frequency as amino acid substitutions which are involved in said optimum growth condition particular to the second microorganism, and (d) introducing one or more of the amino acid substitutions identified in (c) into the gene encoding the protein to modify a property of the protein, and (e) testing the said property to select a protein of which the property has been modified as intended. (a) selecting 1000 or more pairs of genes which are orthologs to each other from genes encoded by genomes of a first microorganism and a second microorganism, respectively, wherein the second microorganism closely related to the first microorganism and shows difference in a certain optimum growth condition when compared with the first microorganism, (b) detecting amino acid substitutions present between an amino acid sequence encoded by a gene of the first microorganism and an amino acid sequence encoded by a gene of the second microorganism for each pair of the selected genes, and compiling the detected amino acid substitutions to calculate the frequency of amino acid substitution for each amino acid substitution type, wherein a correction is made by subtracting, from a number of a certain amino acid substitution, a number of amino acid substitution of the direction reverse to the certain amino acid substitution, (c) identifying the amino acid substitutions which occur at a high frequency as amino acid substitutions which are involved in said optimum growth condition particular to the second microorganism, and (d) introducing one or more of the amino acid substitutions identified in (c) into the gene encoding the protein to modify a property of the protein, and (e) testing the said property to select a protein of which the property has been modified as intended.
Mandrel to be suspended in a sleeving device for arranging sleeves around containers, the mandrel arranged for opening a foil to form a sleeve, the mandrel having a substantially tubular outer surface around which foil is fed, wherein the outer surface (60,61) of the mandrel is formed by at least two separate mandrel bodies (40, 41; 202, 203; 210, 211; 222, 223), characterized in that at least one mandrel body is biased outwardly by use of a biasing element to increase the circumference of the outer surface.
A gas insulated switchgear with a three-phase integrated bus comprising an enclosure, three phase conductors (30, 40, 50) inserted in the enclosure, and spacers coupled to both sides of the enclosure to fix the three phase conductors (30, 40, 50), wherein the three phase conductors (30, 40, 50) are arranged in a shape of inverted triangle, wherein a conductor located at a lower end, of the three phase conductors (30, 40, 50), is formed in a shape of a straight pipe, and has a branch bus extending from its middle portion in an upward direction towards the other two conductors (40, 50) and between the other two conductors (40, 50), and wherein a branch bus of the second phase conductor is formed on a left side portion of the second phase conductor and a branch bus of the third phase conductor is formed on a right side portion of the third phase conductor, wherein outlet pipes (14, 15, 16) extend upwardly from upper ends of a left side portion of the enclosure, a middle portion of the enclosure and a right side portion of the enclosure, respectively, wherein each branch bus (35, 45, 55) extends through a respective one of said outlet pipes (14,15,16), and characterized in that each of the other two conductors (40,50) located at an upper end of the inverted triangle, of the three phase conductors (30, 40, 50), has both side portions (41, 43, 51, 53) formed in a shape of straight pipe and a middle portion (42, 52) outwardly curved to avoid interference with the branch bus of the conductor, wherein the enclosure is formed in a cylindrical shape, wherein each of a left side portion and a right side portion of the enclosure has a transverse section with a diameter shorter than that of a transverse section of a middle portion of the enclosure.
A medical gown to be worn by a person comprising: a front portion, opposite first and second side portions, a back portion having opposite left and right edges defining a vertical opening therebetween; the side portions residing between the front and back portions; each portion having top and bottom edges; the front and back portions being joined to define a neck opening and opposite shoulder portions (26, 28); a first strap having a first end fixed to the back portion adjacent one of the left and right edges and a free second end; the medical gown being characterized by comprising: a releasable fastener to temporarily hold a segment of the first strap to one of the shoulder portions, with the free second end hanging downwardly along the front portion; and a second strap having a first end fixed to one of the side portions or to the front portion; whereby the free second end of the first strap is held by the person and pulled to release the first strap from the one shoulder portion and pulled to close the opening in the back portion without reaching behind the person's back. a front portion, opposite first and second side portions, a back portion having opposite left and right edges defining a vertical opening therebetween; the side portions residing between the front and back portions; each portion having top and bottom edges; the front and back portions being joined to define a neck opening and opposite shoulder portions (26, 28); a first strap having a first end fixed to the back portion adjacent one of the left and right edges and a free second end; the medical gown being characterized by comprising: a releasable fastener to temporarily hold a segment of the first strap to one of the shoulder portions, with the free second end hanging downwardly along the front portion; and a second strap having a first end fixed to one of the side portions or to the front portion; whereby the free second end of the first strap is held by the person and pulled to release the first strap from the one shoulder portion and pulled to close the opening in the back portion without reaching behind the person's back. a releasable fastener to temporarily hold a segment of the first strap to one of the shoulder portions, with the free second end hanging downwardly along the front portion; and a second strap having a first end fixed to one of the side portions or to the front portion; whereby the free second end of the first strap is held by the person and pulled to release the first strap from the one shoulder portion and pulled to close the opening in the back portion without reaching behind the person's back.
A physical self-organizing hydrogel system for biotechnological applications composed of a non-covalent network on the basis of a protein-ligand interaction includes a tetrameric protein as protein and biotin or a derivative thereof as a ligand, wherein biotin or derivative is covalently conjugated to an end of a polymer chain of a single-or double-strand oligonucleotide and wherein the solid content in relation to the entire hydrogel is at least 3% and the conjugates are crosslinked by the tetrameric protein, wherein a mixture ratio in the hydrogel system comprising a molar equivalent ratio between the protein and the number of terminal biotinylated ends of the polymer chains in the biotin-polymer conjugate of 1:2 to 1:8.
A SEPIC type converter for converting a first DC voltage to a second different DC voltage, comprising: - a first NI node, which is used to connect a voltage source connected to ground, which provides the first voltage VIN; - a first LI inductance coupled to the first NI node and a second N2 node - a switch S1 comprising a first contact coupled to the node N2, and a second contact coupled to ground; - a first capacity C1 coupled to the node N2 to a third node N3 - a second inductance 1.2 coupled to the N3 node and a fourth N4 node; - a D1 diode mounted between the Node N3 and a fifth Node N5 so that a current can flow from the Node N3 to the Node N5, which is used to connect a load circuit connected to ground; - a second capacity C2 coupled to the N5 node and mass; - an RS measuring resistor mounted between the Node N4 and the ground is characterized in that the converter comprises a branch which connects the Node NI to the Node N4, and which comprises a third C3 capacitor. - a first NI node, which is used to connect a voltage source connected to ground, which provides the first voltage VIN; - a first LI inductance coupled to the first NI node and a second N2 node - a switch S1 comprising a first contact coupled to the node N2, and a second contact coupled to ground; - a first capacity C1 coupled to the node N2 to a third node N3 - a second inductance 1.2 coupled to the N3 node and a fourth N4 node; - a D1 diode mounted between the Node N3 and a fifth Node N5 so that a current can flow from the Node N3 to the Node N5, which is used to connect a load circuit connected to ground; - a second capacity C2 coupled to the N5 node and mass; - an RS measuring resistor mounted between the Node N4 and the ground is characterized in that the converter comprises a branch which connects the Node NI to the Node N4, and which comprises a third C3 capacitor.
A system capable of determining in which lane a container handling machine is present below a quay crane or the like crane and/or determining the correct location of a container handling machine in its driving direction (y) with respect to a quay crane or the like crane as containers are delivered to the crane or containers are retrieved from the crane by the container handling machine, whereby the crane is fitted with at least one scanning laser distance sensor or the like range finder, characterised in that the container handling machines are fitted with one or more reflectors whose height profile (Hp) is used for the determination of a correct location and/or for the identification of a container handling machine and for the distinction thereof from other container handling machines.
A carrier for holding an infusion pump such that the infusion pump can be carried on the body of a user, the carrier comprising: a carrier frame (310, 310'); an adhesive means (350, 350'), such that the carrier can be attached to the skin of a user; a first guiding means (340, 341) on the carrier frame that can mate with a complementary second guiding means provided on the infusion pump, in order to attach the infusion pump to the carrier and to hold the infusion pump in place on the carrier frame; characterized in that the adhesive means comprises an attachment area, the attachment area being restricted to either a central spot or a line along a horizontal axis (X-X) of the adhesive means; and the carrier frame includes one or more attachment areas (330, 330', 331), where the carrier frame is attached to the attachment area of the adhesive means. a carrier frame (310, 310'); an adhesive means (350, 350'), such that the carrier can be attached to the skin of a user; a first guiding means (340, 341) on the carrier frame that can mate with a complementary second guiding means provided on the infusion pump, in order to attach the infusion pump to the carrier and to hold the infusion pump in place on the carrier frame; characterized in that the adhesive means comprises an attachment area, the attachment area being restricted to either a central spot or a line along a horizontal axis (X-X) of the adhesive means; and the carrier frame includes one or more attachment areas (330, 330', 331), where the carrier frame is attached to the attachment area of the adhesive means.
Use of a stabilising composition for stabilising a polyol or polyurethane, the stabilising composition comprising: at least one secondary arylamine having the formula I: wherein: the or each R, which may be the same or different, independently denotes an optionally substituted hydrocarbyl group having at least 5 carbon atoms; x and y are each independently from 0 to 5 provided that at least one of x and y is at least 1; and a phenolic antioxidant having a molecular weight of at least 390, both the stabilising composition and the secondary arylamine being a liquid at 25°C and atmospheric pressure of 101.325 kPa, and being substantially free from diphenylamine and from lower alkylated diphenylamine antioxidants. at least one secondary arylamine having the formula I: wherein: the or each R, which may be the same or different, independently denotes an optionally substituted hydrocarbyl group having at least 5 carbon atoms; x and y are each independently from 0 to 5 provided that at least one of x and y is at least 1; and the or each R, which may be the same or different, independently denotes an optionally substituted hydrocarbyl group having at least 5 carbon atoms; x and y are each independently from 0 to 5 provided that at least one of x and y is at least 1; and a phenolic antioxidant having a molecular weight of at least 390, both the stabilising composition and the secondary arylamine being a liquid at 25°C and atmospheric pressure of 101.325 kPa, and being substantially free from diphenylamine and from lower alkylated diphenylamine antioxidants.
Method for producing a multi-layer fibrous material product, in particular a foodstuff packaging, having reduced migration of aromatic hydrocarbons, in particular mineral oil aromatic hydrocarbons (MOAH) and/or saturated hydrocarbons, in particular mineral oil saturated hydrocarbons (MOSH), in comparison with fibrous material products based on recycled fibres, in which method two or more fibrous material layers (3, 4, 5, 6) are produced from a fibrous material suspension, characterised in that a mineral filter material selected from the group of bentonite and/or saponite is added to at least one fibrous material layer (3, 4, 5, 6) or to an intermediate layer arranged between two fibrous material layers (3, 4, 5, 6), the dose of the mineral filter material in the relevant fibrous material layer (3, 4, 5, 6) being measured such that the migration value for MOSH is less than 2 mg per kg of foodstuff and/or the migration value for MOAH is less than 0.5 mg per kg of foodstuff.
A catalytic converter (12; 72) comprising: a case tube that is mounted to an exhaust pipe and through an interior of which exhaust flows; a catalyst carrier that is provided at the case tube, that carries a catalyst for purifying exhaust that is exhausted from an engine, and that is heated by energization; and a pair of electrode members that pass through the case tube, are made to contact the catalyst carrier, and are for energizing the catalyst carrier; an insulating member that is disposed between the case tube and at least one of the electrode members, that insulates the electrode member from the case tube; and a control device that is configured to control energizing of the catalyst carrier; the catalytic converter (12; 72) being characterized by: the insulating member that further generates heat due to application of voltage; and the control device that is further configured to control application of voltage to the insulating member. a case tube that is mounted to an exhaust pipe and through an interior of which exhaust flows; a catalyst carrier that is provided at the case tube, that carries a catalyst for purifying exhaust that is exhausted from an engine, and that is heated by energization; and a pair of electrode members that pass through the case tube, are made to contact the catalyst carrier, and are for energizing the catalyst carrier; an insulating member that is disposed between the case tube and at least one of the electrode members, that insulates the electrode member from the case tube; and a control device that is configured to control energizing of the catalyst carrier; the catalytic converter (12; 72) being characterized by: the insulating member that further generates heat due to application of voltage; and the control device that is further configured to control application of voltage to the insulating member. the insulating member that further generates heat due to application of voltage; and the control device that is further configured to control application of voltage to the insulating member.
A method for execution by a domain manager (108, 208) associated with a domain within a network, wherein the domain supports a plurality of slices, each slice managed by a slice operations manager (106, 206), and the slice is an aggregation of resources from different domains; the method comprising: receiving, at the domain manager, from a plurality of network components within the domain, flow-based performance data; transmitting, from the domain manager towards a network manager (104, 204), aggregated performance data comprising performance data aggregated over flows associated with services; wherein receiving the flow-based performance data includes receiving flow-based performance data associated with a plurality of services and wherein transmitting the aggregated performance data comprises transmitting service differentiated aggregations such that the performance is aggregated on a per-service basis for the entire domain; wherein transmitting the aggregated performance data comprises transmitting the service differentiated aggregations on a per-service basis but segregated on a slice basis to each slice operations manager. receiving, at the domain manager, from a plurality of network components within the domain, flow-based performance data; transmitting, from the domain manager towards a network manager (104, 204), aggregated performance data comprising performance data aggregated over flows associated with services; wherein receiving the flow-based performance data includes receiving flow-based performance data associated with a plurality of services and wherein transmitting the aggregated performance data comprises transmitting service differentiated aggregations such that the performance is aggregated on a per-service basis for the entire domain; wherein transmitting the aggregated performance data comprises transmitting the service differentiated aggregations on a per-service basis but segregated on a slice basis to each slice operations manager.
A load control device for controlling an electrical load, the load control device comprising: a load regulation circuit configured to control a magnitude of a load current conducted through the electrical load, the load regulation circuit configured to generate a feedback signal indicative of a peak magnitude of the load current conducted through the electrical load; and a control circuit coupled to the load regulation circuit and configured to control the load regulation circuit for adjusting an average magnitude of the load current conducted through the electrical load towards a target current; wherein the control circuit is configured to control the load regulation circuit to conduct the load current to the electrical load at the peak magnitude for an on-time during a present cycle of the load regulation circuit, the control circuit configured to determine a length of an operating period of the present cycle of the load regulation circuit based on the target current and a magnitude of the feedback signal received in the present cycle that is indicative of the peak magnitude of the load current conducted through the electrical load during the on-time of the present cycle. a load regulation circuit configured to control a magnitude of a load current conducted through the electrical load, the load regulation circuit configured to generate a feedback signal indicative of a peak magnitude of the load current conducted through the electrical load; and a control circuit coupled to the load regulation circuit and configured to control the load regulation circuit for adjusting an average magnitude of the load current conducted through the electrical load towards a target current; wherein the control circuit is configured to control the load regulation circuit to conduct the load current to the electrical load at the peak magnitude for an on-time during a present cycle of the load regulation circuit, the control circuit configured to determine a length of an operating period of the present cycle of the load regulation circuit based on the target current and a magnitude of the feedback signal received in the present cycle that is indicative of the peak magnitude of the load current conducted through the electrical load during the on-time of the present cycle.