mhurhangee/ep-ind-claims huggingface dataset:
Concealed shelf-support device to fasten and support a shelf or a similar element to a wall of a furniture unit or similar element, comprising a first joining and support element inserted into a relative recess formed in the wall and cooperating with a second joining and support element inserted in a relative recess formed on the side of the shelf, the first element forming the seat in which is engaged the second element consisting of a spring-loaded pin (15, 17), at least one of said first and second joining elements (10, 11) is provided with a surface (18, 27) that is inclined with respect to the surface of the shelf to be installed on the wall, said inclined surface being suitable to automatically guide both the insertion and the exit of said spring-loaded pin (15, 17) with respect to said seat through the displacement of the shelf in a direction parallel to the wall, the first joining element consists of a bushing provided with an opening for the passage of the spring-loaded pin (15, 17), said inclined surface being formed in said opening, and the second joining element includes a hollow body in which is inserted a shaped hollow pin, which is urged by a helical spring suitable to act between the closed bottom of the hollow body and the head of the hollow pin, characterized in that the head of the pin extends axially outside the body with an anvil-shaped prong and a rib orthogonal to the prong and inclined with respect to the axis of the head, the prong and the rib being integral with each other and forming a guide element that cooperates with the opening of the first element for inserting the second element into and disconnecting it from the first element.
A semiconductor device fabrication process comprising: forming a first oxide layer on top of a signal metal layer used for signal interconnects, wherein: the first oxide layer separates the signal metal layer from a metal- insulator-metal capacitor and is formed to have: a first thickness if a first polysilicon layer is used below and a second polysilicon layer is not used above the MIM capacitor; and a second thickness greater than the first thickness if the first polysilicon is used below and the second polysilicon layer is used above the MIM capacitor; depositing a polysilicon layer on top of the first oxide layer; forming a photoresist layer on top of the polysilicon layer; removing the photoresist layer at a plurality of approximately equally spaced locations; etching trenches into the polysilicon layer unprotected by the photoresist layer, wherein the trenches occur at the plurality of approximately equally spaced locations; stripping the photoresist layer; depositing a series of layers on the polysilicon layer to form the MIM capacitor with an oscillating pattern, the series of layers comprising a bottom metal layer, a dielectric layer, and a top metal layer; depositing given metal layers (1130, 1132) to create nodes for the MIM capacitor, wherein the given metal layers contact a top of the MIM capacitor and the bottom of the MIM capacitor through vias (1120, 1122). forming a first oxide layer on top of a signal metal layer used for signal interconnects, wherein: the first oxide layer separates the signal metal layer from a metal- insulator-metal capacitor and is formed to have: a first thickness if a first polysilicon layer is used below and a second polysilicon layer is not used above the MIM capacitor; and a second thickness greater than the first thickness if the first polysilicon is used below and the second polysilicon layer is used above the MIM capacitor; a first thickness if a first polysilicon layer is used below and a second polysilicon layer is not used above the MIM capacitor; and a second thickness greater than the first thickness if the first polysilicon is used below and the second polysilicon layer is used above the MIM capacitor; depositing a polysilicon layer on top of the first oxide layer; forming a photoresist layer on top of the polysilicon layer; removing the photoresist layer at a plurality of approximately equally spaced locations; etching trenches into the polysilicon layer unprotected by the photoresist layer, wherein the trenches occur at the plurality of approximately equally spaced locations; stripping the photoresist layer; depositing a series of layers on the polysilicon layer to form the MIM capacitor with an oscillating pattern, the series of layers comprising a bottom metal layer, a dielectric layer, and a top metal layer; depositing given metal layers (1130, 1132) to create nodes for the MIM capacitor, wherein the given metal layers contact a top of the MIM capacitor and the bottom of the MIM capacitor through vias (1120, 1122).
Hairstyling appliance designed to be held and handled by hand, and comprising at least one main body that incorporates a motor, as well as a means for entraining a lock of hair to be styled movably mounted relative to the main body and intended to be set in motion by said motor to set in motion said lock of hair relative to the main body, said hairstyling appliance comprising first and second complementary coupling parts (16, 17) that are attached respectively to the motor and to the entraining means, said first and second complementary coupling parts (16, 17) being movable relative to one another between, on the one hand, a coupled configuration, wherein said first and second complementary coupling parts (16, 17) are in mutual contact to enable the motor to set in motion the entraining means, and on the other hand, an uncoupled configuration, wherein said first and second complementary coupling parts (16, 17) are at a distance from one another, such that the motor is unable to set in motion the entraining means, characterized in that said motor comprises a rotary motor shaft, while said entraining means comprises a rotary receiving shaft, said rotary motor shaft and rotary receiving shaft respectively bearing the first and the second complementary coupling part (16, 17), and in that said motor and receiving shafts (3A, 4A) are substantially aligned when said first and second complementary coupling parts (16, 17) are in coupled configuration, while when said first and second complementary coupling parts (16, 17) are in uncoupled configuration, said motor and receiving shafts (3A, 4A) are substantially misaligned.
A coated seed composition comprising: at least one seed; and at least one layer coating all or part of the seed, the layer comprising: - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; wherein the crosslinked biopolymer is amylose and/or amylopectin, characterised in that the crosslinked biopolymer has an average particle size of less than 400nm. at least one seed; and at least one layer coating all or part of the seed, the layer comprising: - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; - at least a first binder comprising a crosslinked biopolymer and - a second binder comprising guar and/or derivatized guar; wherein the crosslinked biopolymer is amylose and/or amylopectin, characterised in that the crosslinked biopolymer has an average particle size of less than 400nm.
A composition of α,α-branched alkane carboxylic glycidyl esters from butene oligomers, comprising a mixture of neo-acid (C9 or C13 acids) derivatives characterized in that the sum of the concentration of the blocked and of the highly branched isomers is at least 50%, preferably above 60% and most preferably above 75% on total composition.
A method, comprising: generating, by a first line-replaceable unit, LRU, in a plurality of LRUs (105, 115, 120, 125), a first encryption key; encrypting specified data using the first encryption key, wherein the specified data is stored as backup data in a storage media device attachable to the first LRU; generating, based on key data of from two or more other LRUs (115, 120, 125) in the plurality of LRUs (105, 115, 120, 125), a second encryption key; encrypting the first encryption key using the second encryption key; storing the encrypted specified data and the encrypted first encryption key in the storage media device; generating, by a replacement LRU for the first LRU, the second encryption key based on the key data from two or more other LRUs; decrypting the encrypted first encryption key stored in the storage media device; decrypting the encrypted specified data; and restoring the specified data to the replacement LRU. generating, by a first line-replaceable unit, LRU, in a plurality of LRUs (105, 115, 120, 125), a first encryption key; encrypting specified data using the first encryption key, wherein the specified data is stored as backup data in a storage media device attachable to the first LRU; generating, based on key data of from two or more other LRUs (115, 120, 125) in the plurality of LRUs (105, 115, 120, 125), a second encryption key; encrypting the first encryption key using the second encryption key; storing the encrypted specified data and the encrypted first encryption key in the storage media device; generating, by a replacement LRU for the first LRU, the second encryption key based on the key data from two or more other LRUs; decrypting the encrypted first encryption key stored in the storage media device; decrypting the encrypted specified data; and restoring the specified data to the replacement LRU.
A solventborne binder comprising: a copolymer obtained by reacting a composition comprising a monomer mixture and an organic solvent, the monomer mixture comprising: (i) 70 to 97 percent by weight of an ethylenically unsaturated monomer; and (ii) 3 to 30 percent by weight of a vinyl ester monomer having a formula: wherein R is a linear or branched alkyl group having 2 to 18 carbon atoms, or an aromatic group having 6 to 12 carbon atoms, and X is O, wherein the percent by weight is based on the total weight of the monomers (i) and (ii) in the monomer mixture and monomers (i) and (ii) are different from each other, wherein the solvent, or mixtures thereof, has a boiling point greater than 100 °C, and wherein the composition is essentially free of butanol. a copolymer obtained by reacting a composition comprising a monomer mixture and an organic solvent, the monomer mixture comprising: (i) 70 to 97 percent by weight of an ethylenically unsaturated monomer; and (ii) 3 to 30 percent by weight of a vinyl ester monomer having a formula: wherein R is a linear or branched alkyl group having 2 to 18 carbon atoms, or an aromatic group having 6 to 12 carbon atoms, and X is O, (i) 70 to 97 percent by weight of an ethylenically unsaturated monomer; and (ii) 3 to 30 percent by weight of a vinyl ester monomer having a formula: wherein R is a linear or branched alkyl group having 2 to 18 carbon atoms, or an aromatic group having 6 to 12 carbon atoms, and X is O, wherein the percent by weight is based on the total weight of the monomers (i) and (ii) in the monomer mixture and monomers (i) and (ii) are different from each other, wherein the solvent, or mixtures thereof, has a boiling point greater than 100 °C, and wherein the composition is essentially free of butanol.
Method for managing the electricity consumption of an electrical network to which is linked a set of consuming entities (E1,...,Ei,...EN) each equipped with a thermal installation (Ch1,...,ChN) consuming electricity to regulate a temperature of the entity, comprising the following steps, implemented in parallel by each consuming entity for a given instant (τ): a) determination of a first datum representative of a power deviation between the electrical power consumed by the set of consuming entities and a setpoint electrical power; b) determination of a second datum (VN2 i) representative of a temperature deviation between a measurement of the regulated temperature of said entity and a reference temperature specific to said entity; c) determination of a power regulation coefficient (k i (τ)) for said entity from the first power deviation datum and from the second temperature deviation datum; d) control of a reduction (S4, S5) of the power consumed by said entity as a function of the determined regulation coefficient. a) determination of a first datum representative of a power deviation between the electrical power consumed by the set of consuming entities and a setpoint electrical power; b) determination of a second datum (VN2 i) representative of a temperature deviation between a measurement of the regulated temperature of said entity and a reference temperature specific to said entity; c) determination of a power regulation coefficient (k i (τ)) for said entity from the first power deviation datum and from the second temperature deviation datum; d) control of a reduction (S4, S5) of the power consumed by said entity as a function of the determined regulation coefficient.
Plug element for conducting tests of a well or a pipe, comprising a plug body of crushable glass material set up to be ruptured by internally applied pressure effects, characterised in that the plug body comprises two plug sections (2a,2b) one placed on top of the other, the surfaces of the plug sections (2a,2b) facing each other define an internal hollow space of the plug body, and comprises an activation mechanism communicating with the internal hollow space, in that said activation mechanism comprises a casing in the plug wall having an axially moving, double acting piston, comprising an upper and lower area, and when pressure from the pipe in which the plug is fitted is applied to the upper area of the piston, the pressure in the lower part, which is in connection with the hollow space of the plug body, will increase, and the plug body will now be blown apart from the inside as a consequence of the increased pressure difference between the inside of the plug body and its outside.
Back focal length extender for telescopic imaging systems having interchangeable observation eyepieces, consisting of a cylindrical housing which, in the light direction, has a first and a second stop plane perpendicular to its cylinder axis with associated connecting elements to the telescope body and to the interchangeable observation eyepiece and in which the housing has a relay lens that is arranged between the first stop plane and the second stop plane, characterized in that the relay lens, in two-part form, consists of a first positive, neutral or negative lens member and a further negative lens member, wherein there is disposed downstream between the first lens member (9, 11) and the further lens member a beam splitter surface that is at an angle to the optical axis of the imaging system and the first and further lens members (9, 11; 10), together with the distance lying therebetween, have a negative refractive power overall.
A method of imparting at least one beneficial trait upon a plant species, the method comprising: applying at least one isolated bacterial species to said plant, or to a growth medium in which said plant is located, wherein the at least one isolated bacterial species is Frigidibacter albus (also known as Delfulviimonas denitrificans).
A packaging box comprising: a base portion defining a first plane; and at least one first side wall portion (102,103) arranged at an angle to the base portion, the first side wall portion being joined to the base portion via a fold line at a first edge of the base portion, the first side wall portion having a pair of extension portions extending from opposite edges of the side wall portion so as to provide at least part of a pair of second side wall portions arranged at an angle to the base portion and at an angle to the first side wall portion, each side wall portion of the second pair of side wall portions comprising at least part of one of the pair of extension portions extending from the first side wall portion, a connecting portion (112,113,114,115) of each extension portion connecting the first side wall portion to one of the second pair of side wall portions being smoothly curved; at least one side tab portion (104,105) arranged at an angle to the base portion and being joined to the base portion via a fold line at an edge of the base portion such that the side tab portion lies against a surface of the respective extension portion of the first side wall portion; and at least one lid portion, the at least one lid portion being joined to the side tab portion via a fold line and extending at an angle to the respective side wall portion for at least partially closing the packaging box. a base portion defining a first plane; and at least one first side wall portion (102,103) arranged at an angle to the base portion, the first side wall portion being joined to the base portion via a fold line at a first edge of the base portion, the first side wall portion having a pair of extension portions extending from opposite edges of the side wall portion so as to provide at least part of a pair of second side wall portions arranged at an angle to the base portion and at an angle to the first side wall portion, each side wall portion of the second pair of side wall portions comprising at least part of one of the pair of extension portions extending from the first side wall portion, a connecting portion (112,113,114,115) of each extension portion connecting the first side wall portion to one of the second pair of side wall portions being smoothly curved; at least one side tab portion (104,105) arranged at an angle to the base portion and being joined to the base portion via a fold line at an edge of the base portion such that the side tab portion lies against a surface of the respective extension portion of the first side wall portion; and at least one lid portion, the at least one lid portion being joined to the side tab portion via a fold line and extending at an angle to the respective side wall portion for at least partially closing the packaging box.
A method for the qualitative and quantitative detection of analytes, wherein - a magnetically marked analyte is used in the detection of an analyte in a sample, - the sample is arranged in connection with a coil (10.1) and a change in inductance, correlating with the content of the magnetically marked analyte, is detected, - said coil (10.1) is one of an astatically set pair of secondary receiving coils located inside a primary driver coil, over which alternating current fed to said primary driver coil induces voltage in the presence of a magnetically marked analyte in the sample and an elongated migration base including an area for binding a magnetically marked analyte is used in the detection of an analyte in a sample, the method including the steps of - absorbing the sample into the migration base, - allowing the sample to spread on the migration base into the said area, - arranging the elongated migration base in connection with the at least one secondary receiving coil (10.1), - detecting a change in inductance in the presence of the magnetically marked analyte in the sample. - a magnetically marked analyte is used in the detection of an analyte in a sample, - the sample is arranged in connection with a coil (10.1) and a change in inductance, correlating with the content of the magnetically marked analyte, is detected, - said coil (10.1) is one of an astatically set pair of secondary receiving coils located inside a primary driver coil, over which alternating current fed to said primary driver coil induces voltage in the presence of a magnetically marked analyte in the sample and an elongated migration base including an area for binding a magnetically marked analyte is used in the detection of an analyte in a sample, the method including the steps of - absorbing the sample into the migration base, - allowing the sample to spread on the migration base into the said area, - arranging the elongated migration base in connection with the at least one secondary receiving coil (10.1), - detecting a change in inductance in the presence of the magnetically marked analyte in the sample.
A cardiac device for delivering a cardiac remodeling pacing to a patient, comprising: a housing; a plurality of electrodes (40, 42, 44, 46, 48, 50) electrically connected to the housing to deliver the cardiac remodeling pacing to dilate the LV chamber of the patient's heart over time to stimulate normalization of a condition of the patient's heart; and a processor positioned within the housing and configured to: monitor one or more parameters in response to the delivered cardiac remodeling pacing, determine, in response to the monitoring, whether the cardiac remodeling pacing has an effect on cardiac normalization, and adjust, in response to the determined effect on cardiac normalization, the cardiac remodeling pacing. a housing; a plurality of electrodes (40, 42, 44, 46, 48, 50) electrically connected to the housing to deliver the cardiac remodeling pacing to dilate the LV chamber of the patient's heart over time to stimulate normalization of a condition of the patient's heart; and a processor positioned within the housing and configured to: monitor one or more parameters in response to the delivered cardiac remodeling pacing, determine, in response to the monitoring, whether the cardiac remodeling pacing has an effect on cardiac normalization, and adjust, in response to the determined effect on cardiac normalization, the cardiac remodeling pacing. monitor one or more parameters in response to the delivered cardiac remodeling pacing, determine, in response to the monitoring, whether the cardiac remodeling pacing has an effect on cardiac normalization, and adjust, in response to the determined effect on cardiac normalization, the cardiac remodeling pacing.
A loading device (1000, 1100, 1200, 1300) configured to radially collapse an expandable medical implant, the loading device comprising: an operating handle having an opening therein extending along a longitudinal axis thereof; a brace coupled to the operating handle and configured to interface with a distal end of a delivery system configured to deploy the expandable medical implant, the brace having a lumen extending therethrough in a direction parallel to the longitudinal axis; a plurality of brace arms (1006, 1106) that extend from the brace to the operating handle, the brace arms being configured to transfer a force acting on the brace along the longitudinal axis directly to the operating handle; a packing rod extending between the operating handle and the brace in first and second longitudinal directions parallel to the longitudinal axis; and a control element movable relative to the operating handle, movable relative to the packing rod and coupled to the packing rod, the control element being configured to translate the packing rod relative to the operating handle and the brace in the first and second longitudinal directions. an operating handle having an opening therein extending along a longitudinal axis thereof; a brace coupled to the operating handle and configured to interface with a distal end of a delivery system configured to deploy the expandable medical implant, the brace having a lumen extending therethrough in a direction parallel to the longitudinal axis; a plurality of brace arms (1006, 1106) that extend from the brace to the operating handle, the brace arms being configured to transfer a force acting on the brace along the longitudinal axis directly to the operating handle; a packing rod extending between the operating handle and the brace in first and second longitudinal directions parallel to the longitudinal axis; and a control element movable relative to the operating handle, movable relative to the packing rod and coupled to the packing rod, the control element being configured to translate the packing rod relative to the operating handle and the brace in the first and second longitudinal directions.