mhurhangee/patent-ind-claim-en huggingface dataset:
A bicycle saddle comprising: a base having a rear section and a front section ; a rear portion positioned on the rear section of the base for supporting sit bones of a rider, the rear portion comprising a first resilient material having a first hardness; and a front portion positioned on the front section of the base for supporting genitalia of the rider, characterised by the front portion comprising a second resilient material having a second hardness less than the first hardness, the front portion including side portions positioned on side segments of the front section of the base, the side portions of the front portion being formed from the second resilient material and each having a first thickness above a highest part of the side segments of the front section of the base, the side portions of the front portion being separated by a central portion of the front portion having a second thickness less than the first thickness, the central portion also being formed from the second resilient material. a base having a rear section and a front section ; a rear portion positioned on the rear section of the base for supporting sit bones of a rider, the rear portion comprising a first resilient material having a first hardness; and a front portion positioned on the front section of the base for supporting genitalia of the rider, characterised by the front portion comprising a second resilient material having a second hardness less than the first hardness, the front portion including side portions positioned on side segments of the front section of the base, the side portions of the front portion being formed from the second resilient material and each having a first thickness above a highest part of the side segments of the front section of the base, the side portions of the front portion being separated by a central portion of the front portion having a second thickness less than the first thickness, the central portion also being formed from the second resilient material.
A compound selected from the following structures: or including enantiomers, diastereomers, hydrates, solvates, pharmaceutically acceptable salts, and complexes thereof.
A hermetic terminal for a high-capacity relay, comprising: a metal container provided with a through hole; a pipe lead inserted through the through hole; an insulating glass hermetically sealing the pipe lead and the metal container ; and a terminal base passing through and hermetically secured to the pipe lead and made of a low-resistance metal, wherein a gap is provided between an inner circumferential surface of a portion of the pipe lead in contact with the insulating glass and an outer circumferential surface of a corresponding portion of the terminal base . a metal container provided with a through hole; a pipe lead inserted through the through hole; an insulating glass hermetically sealing the pipe lead and the metal container ; and a terminal base passing through and hermetically secured to the pipe lead and made of a low-resistance metal, wherein a gap is provided between an inner circumferential surface of a portion of the pipe lead in contact with the insulating glass and an outer circumferential surface of a corresponding portion of the terminal base .
A method of reducing a thickness and increasing a height of a cylindrical wall of a metal cup so as to form a can body , wherein the metal cup is made from sheet metal pre-coated with a polymer, such as polyester or polypropylene, the method comprising: positioning a wall-ironing punch inside the cup; moving an annular wall-ironing die axially over the closed end of the cup towards the open end of the cup, but not beyond the open end of the cup, in order to iron the cylindrical wall from the closed end up to a position axially spaced from the open end; and moving the wall-ironing die back in an opposite direction to remove the can body from the die; wherein the method further comprises: pressing a tool against the outer surface of a base of the can body as the wall-ironing die is moved towards the open end of the cup in order to form a profile in the base, wherein the die is shaped to pass across the region beyond said axially spaced position without ironing that region, and the profile is formed in the base during this passage; and removing the punch from within the can body prior to moving the wall-ironing die back in the opposite direction. positioning a wall-ironing punch inside the cup; moving an annular wall-ironing die axially over the closed end of the cup towards the open end of the cup, but not beyond the open end of the cup, in order to iron the cylindrical wall from the closed end up to a position axially spaced from the open end; and moving the wall-ironing die back in an opposite direction to remove the can body from the die; wherein the method further comprises: pressing a tool against the outer surface of a base of the can body as the wall-ironing die is moved towards the open end of the cup in order to form a profile in the base, wherein the die is shaped to pass across the region beyond said axially spaced position without ironing that region, and the profile is formed in the base during this passage; and removing the punch from within the can body prior to moving the wall-ironing die back in the opposite direction. pressing a tool against the outer surface of a base of the can body as the wall-ironing die is moved towards the open end of the cup in order to form a profile in the base, wherein the die is shaped to pass across the region beyond said axially spaced position without ironing that region, and the profile is formed in the base during this passage; and removing the punch from within the can body prior to moving the wall-ironing die back in the opposite direction.
A motor vehicle , preferably commercial vehicle, with a hybrid drive unit which is connected to a traction energy network of the motor vehicle; an external interface device which has a bidirectional data interface for data exchange with an external apparatus and a high-voltage interface for the exchange of electrical energy with the external apparatus , wherein the high-voltage interface is connected to the traction energy network of the motor vehicle ; and a control device which is configured to receive identification data and/or operating data from the external apparatus via a data interface , which identify an electrical energy storage unit and/or an electrically operated drive unit of the external apparatus , wherein the control device is further configured, depending on the received identification data and/or operating data, both to control an energy transmission via the high-voltage interface and to determine control data for the external apparatus and to send the control data to the external apparatus via the data interface , and wherein a) the control device is further configured to receive identification data and/or operating data of an in-vehicle electrical energy storage unit and/or of the hybrid drive unit of the vehicle ; and b) depending on the received identification data and/or operating data both of the vehicle and of the external apparatus , to determine operating specifications for all available drive units of the motor vehicle and of the external apparatus and to transmit the operating specifications as control data to the available drive units of the motor vehicle and of the external apparatus ; characterized in that the control device is further configured to incorporate the electrical energy storage unit identified by means of the received identification data and/or operating data and/or the electric drive unit of the external apparatus identified by means of the received identification data and/or operating data as a further energy subsystem in addition to the in-vehicle energy subsystems into a total energy management performed by the control device , if the control device detects, by means of the received identification data and/or operating data, that an external apparatus is connected to the external interface device . a) the control device is further configured to receive identification data and/or operating data of an in-vehicle electrical energy storage unit and/or of the hybrid drive unit of the vehicle ; and b) depending on the received identification data and/or operating data both of the vehicle and of the external apparatus , to determine operating specifications for all available drive units of the motor vehicle and of the external apparatus and to transmit the operating specifications as control data to the available drive units of the motor vehicle and of the external apparatus ;
Watch case comprising: - at least first , second and third distinct trim elements, each of these trim elements being adjacent to the other two; - at least one sealing joint arranged to ensure sealing between said trim elements ; characterized in that said sealing joint comprises a one-piece gasket of three-dimensional shape, said gasket being adapted to ensure sealing simultaneously between: - said first and second trim elements; - said second and third trim elements; and - said first and third trim elements, said gasket comprising a first part arranged to ensure sealing between said first and second trim elements, a second part arranged to ensure sealing between said first and third trim elements, and a third part arranged to ensure sealing between said second and third trim elements, a junction between said first and second trim elements lying in a plane having a non-zero angle with reference to a junction between said first and third trim elements, said gasket comprising at least two junctions between the three parts , said gasket forming a "T" or a "Y" at said junctions . - at least first , second and third distinct trim elements, each of these trim elements being adjacent to the other two; - at least one sealing joint arranged to ensure sealing between said trim elements ; characterized in that said sealing joint comprises a one-piece gasket of three-dimensional shape, said gasket being adapted to ensure sealing simultaneously between: - said first and second trim elements; - said second and third trim elements; and - said first and third trim elements, - said first and second trim elements; - said second and third trim elements; and - said first and third trim elements, said gasket comprising a first part arranged to ensure sealing between said first and second trim elements, a second part arranged to ensure sealing between said first and third trim elements, and a third part arranged to ensure sealing between said second and third trim elements, a junction between said first and second trim elements lying in a plane having a non-zero angle with reference to a junction between said first and third trim elements, said gasket comprising at least two junctions between the three parts , said gasket forming a "T" or a "Y" at said junctions .
Method for extracting a non-hydrolyzed α-keratin from animal hair comprising the following steps: degreasing the animal hair with a 30-60% (v degreaser /v total ) solution of a degreaser to obtain a solution of degreased animal hair, wherein the step of degreasing is a step of digesting; filtering the solution of degreased animal hair to remove residues and to obtain a solution of keratin using a sieve with a mesh between 0.5-2 mm; concentrating keratin by ultrafiltration; wherein the solution of the degreaser has a pH between 13-14; wherein the step of degreasing is carried out for 4-6 hours; wherein the obtainable keratin has a molecular weight between 40-65 kDa. degreasing the animal hair with a 30-60% (v degreaser /v total ) solution of a degreaser to obtain a solution of degreased animal hair, wherein the step of degreasing is a step of digesting; filtering the solution of degreased animal hair to remove residues and to obtain a solution of keratin using a sieve with a mesh between 0.5-2 mm; concentrating keratin by ultrafiltration; wherein the solution of the degreaser has a pH between 13-14; wherein the step of degreasing is carried out for 4-6 hours; wherein the obtainable keratin has a molecular weight between 40-65 kDa.
A method of diagnosing lung cancer comprising the steps of: (a) determining an expression profile of a predetermined set of miRNAs in a blood cell sample from a patient, wherein the predetermined set of miRNAs comprises hsa-miR-15a, and (b) comparing said expression profile to a reference expression profile, wherein the comparison of said determined expression profile to said reference expression profile allows for the diagnosis of lung cancer. (a) determining an expression profile of a predetermined set of miRNAs in a blood cell sample from a patient, wherein the predetermined set of miRNAs comprises hsa-miR-15a, and (b) comparing said expression profile to a reference expression profile, wherein the comparison of said determined expression profile to said reference expression profile allows for the diagnosis of lung cancer.
Agricultural implement comprising: a soil-to-soil packer roller , comprising a plurality of packer roller rings , each having a periphery with a substantially U-shaped profile, where a concave side of the U-shaped profile faces a surface of the ground to be tilled by the agricultural implement, and a scraper arrangement, comprising a scraper tool for each of the packer roller rings , characterized in that the scraper tools are moveable between a first position in which they are clear of the respective packer roller ring and a second position in which they extend down into the U-shaped profile of the respective packer roller ring . a soil-to-soil packer roller , comprising a plurality of packer roller rings , each having a periphery with a substantially U-shaped profile, where a concave side of the U-shaped profile faces a surface of the ground to be tilled by the agricultural implement, and a scraper arrangement, comprising a scraper tool for each of the packer roller rings , characterized in that the scraper tools are moveable between a first position in which they are clear of the respective packer roller ring and a second position in which they extend down into the U-shaped profile of the respective packer roller ring .
A cell culture medium for culturing organoid containing at least two types of components selected from the group consisting of insulin-like growth factor 1 (IGF1), fibroblast growth factor 2 (FGF2) and epiregulin (EREG), and at least one type of component among the following components i) to iii): i) Wnt agonist, ii) bone morphogenetic protein (BMP) inhibitor, and iii) transforming growth factor-β (TGF-β) inhibitor; wherein the cell culture medium: - does not contain EGF at all or only contains EGF at a concentration at which inhibition of the expression of EGFR does not occur; and - does not contain p38 inhibitor at all or only contains p38 inhibitor at a concentration at which inhibition of differentiation and cell death caused by p38 inhibitor do not occur. i) Wnt agonist, ii) bone morphogenetic protein (BMP) inhibitor, and iii) transforming growth factor-β (TGF-β) inhibitor; - does not contain EGF at all or only contains EGF at a concentration at which inhibition of the expression of EGFR does not occur; and - does not contain p38 inhibitor at all or only contains p38 inhibitor at a concentration at which inhibition of differentiation and cell death caused by p38 inhibitor do not occur.
A supporting device for a cantilevered tubular structure , comprising a tubular structure in turn comprising at least one tubular element facing a supporting wall wherein said at least one tubular element provides an opening facing said supporting wall , the device comprising in combination: a first hook portion fixed to said at least one tubular element and a second positionable supporting portion fixable to said supporting wall , adjustment mechanisms of the positions in depth and height of said first hook portion with respect to said second supporting portion , being associated with said first hook portion , characterized in that said first hook portion is positioned inside said at least one tubular element and is constrained in correspondence with said opening .
An implantable medical device , comprising: a functional device for carrying out a therapeutic or diagnostic function, and a communication device for communicating with a remote monitoring system , wherein the communication device , at a start of initial operation of the implantable medical device , is enabled to establish a communication with said remote monitoring system , wherein the communication device is configured to transmit a transmit signal (T) repeatedly according to a predefined first time scheme to establish a communication with said remote monitoring system , wherein the communication device is configured to transmit said transmit signal (T) repeatedly at a regular first time interval (RP1) to establish a communication with said remote monitoring system , wherein said transmit signal (T) is configured to trigger said remote monitoring system to establish a communication connection to the implantable medical device , wherein the repeated transmission of the transmit signal (T) requires a current consumption of less than 20 mAs per day, wherein the implantable medical device is configured to initiate at least one communication function on the occasion of establishment of a communication connection with the remote monitoring system , wherein the implantable medical device is configured to activate the communication function only if a specific activation criterion is fulfilled, and wherein the activation criterion is that in a pre-defined previous time span a specified number of successful communication connections have been established in between the implantable medical device and the remote monitoring system . wherein the communication device is configured to transmit a transmit signal (T) repeatedly according to a predefined first time scheme to establish a communication with said remote monitoring system , wherein the communication device is configured to transmit said transmit signal (T) repeatedly at a regular first time interval (RP1) to establish a communication with said remote monitoring system , wherein said transmit signal (T) is configured to trigger said remote monitoring system to establish a communication connection to the implantable medical device , wherein the repeated transmission of the transmit signal (T) requires a current consumption of less than 20 mAs per day, wherein the implantable medical device is configured to initiate at least one communication function on the occasion of establishment of a communication connection with the remote monitoring system , wherein the implantable medical device is configured to activate the communication function only if a specific activation criterion is fulfilled, and wherein the activation criterion is that in a pre-defined previous time span a specified number of successful communication connections have been established in between the implantable medical device and the remote monitoring system .
Method of forming a bio-compatible membrane comprising the steps of providing a composition comprising (i) water, (ii) a water-soluble anionic bio-degradable polymer and (iii) platelet nanoparticles, either as such or in parts thereof, wherein the bio-degradable polymer is in an amount of 1.5-64 wt.%, based on a total weight of the composition, wherein the biopolymer is an alginate-like exopolysaccharide of extracellular polymeric substances obtained from aerobic or annamox granular sludge and is not alginate per se, wherein the nanoparticles are in an amount of 0.01-64 wt.%, based on a total weight of the composition, wherein the nanoparticles are clay, applying the composition onto a surface, the surface providing polyvalent cations, reacting the (ii)(a) bio-degradable polymer and polyvalent cations, thereby forming a membrane layer on the surface. providing a composition comprising (i) water, (ii) a water-soluble anionic bio-degradable polymer and (iii) platelet nanoparticles, either as such or in parts thereof, (i) water, (ii) a water-soluble anionic bio-degradable polymer and (iii) platelet nanoparticles, either as such or in parts thereof, wherein the bio-degradable polymer is in an amount of 1.5-64 wt.%, based on a total weight of the composition, wherein the biopolymer is an alginate-like exopolysaccharide of extracellular polymeric substances obtained from aerobic or annamox granular sludge and is not alginate per se, wherein the nanoparticles are in an amount of 0.01-64 wt.%, based on a total weight of the composition, wherein the nanoparticles are clay, applying the composition onto a surface, the surface providing polyvalent cations, reacting the (ii)(a) bio-degradable polymer and polyvalent cations, thereby forming a membrane layer on the surface.
A method of forming a protective shield for protecting an aircraft component from EMI or energy bursts comprising the steps of: combining a carbon-based or silicon-based preceramic polymer precursor dissolved in a solvent and a ferromagnetic metallic precursor dissolved in a solvent to form a dope; processing the dope by electrospinning or electrospraying to provide a nano-structure material that includes nano-structures that result from the processing, wherein the nano-structure material is applied to a substrate or is used to form a non-woven structure; post-processing the substrate or non-woven structure to provide the nano-structure material with a uniformly distributed base metal or metal compound; and forming a protective shield using the nano-structure material, characterized in that a weight percentage range in the protective shield is 75/25 to 99/1 weight percent of carbon-based or silicon-based nano-structure to magnetic nano-structure. combining a carbon-based or silicon-based preceramic polymer precursor dissolved in a solvent and a ferromagnetic metallic precursor dissolved in a solvent to form a dope; processing the dope by electrospinning or electrospraying to provide a nano-structure material that includes nano-structures that result from the processing, wherein the nano-structure material is applied to a substrate or is used to form a non-woven structure; post-processing the substrate or non-woven structure to provide the nano-structure material with a uniformly distributed base metal or metal compound; and forming a protective shield using the nano-structure material, characterized in that a weight percentage range in the protective shield is 75/25 to 99/1 weight percent of carbon-based or silicon-based nano-structure to magnetic nano-structure.