mhurhangee/ep-ind-claims huggingface dataset:
A hydrogel comprising: (a) a hydrophilic gelling agent that includes a nonionic cellulose ether; and (b) active thermolysin, wherein the hydrogel further comprises a diol and/or a triol, wherein the hydrogel further comprises a preservative, wherein the proteolytic activity of the thermolysin does not decrease by more than 20% when stored at room temperature for 6 months, wherein the hydrogel has a viscosity of 15,000 to 100,000 mPa.s, as measured with a Brookfield RV Viscometer, spindle 14 with small sample adapter, at 10 rpm at room temperature read at 30 seconds and, wherein the nonionic cellulose ether comprises hydroxyethylcellulose at 2.5 to 4.5% w/w of the hydrogel, or hydroxypropylcellulose at 0.01 to 10% w/w of the hydrogel, or hydroxypropylmethylcellulose at 1.5 to 2.5% w/w of the hydrogel. (a) a hydrophilic gelling agent that includes a nonionic cellulose ether; and (b) active thermolysin, wherein the hydrogel further comprises a diol and/or a triol, wherein the hydrogel further comprises a preservative, wherein the proteolytic activity of the thermolysin does not decrease by more than 20% when stored at room temperature for 6 months, wherein the hydrogel has a viscosity of 15,000 to 100,000 mPa.s, as measured with a Brookfield RV Viscometer, spindle 14 with small sample adapter, at 10 rpm at room temperature read at 30 seconds and, wherein the nonionic cellulose ether comprises hydroxyethylcellulose at 2.5 to 4.5% w/w of the hydrogel, or hydroxypropylcellulose at 0.01 to 10% w/w of the hydrogel, or hydroxypropylmethylcellulose at 1.5 to 2.5% w/w of the hydrogel.
A method for preparing quantum dots light-emitting diode, comprising following step: providing a base plate, placing the base plate into an inert atmosphere containing active gas, and printing quantum dots ink on a surface of the base plate to prepare a quantum dots light-emitting layer; and wherein the active gas is one or a combination of two or more selected from a group consisting of saturated fatty acids, unsaturated fatty acids, esters, and organic bases. providing a base plate, placing the base plate into an inert atmosphere containing active gas, and printing quantum dots ink on a surface of the base plate to prepare a quantum dots light-emitting layer; and wherein the active gas is one or a combination of two or more selected from a group consisting of saturated fatty acids, unsaturated fatty acids, esters, and organic bases.
A method for integrating enterprise search with a custom document access control application programming interface, API, the method comprising: storing data defining a custom API for obtaining one or more access rights for a document, wherein the data defining the custom API comprises data identifying one or more parameters of the method exposed by the custom API and wherein the data comprises an extendable markup language, XML, file describing the custom API; exposing a normalized API for obtaining access rights for a document; receiving a call to a method exposed by the normalized API requesting access rights for a specified document, wherein the data defining the custom API further comprises data identifying one of the parameters as corresponding to an identifier for the document for which access rights are requested and wherein the method exposed by the normalized API receives a parameter identifying the document for which access rights are requested; in response to receiving the call to the method exposed by the normalized API, utilizing the stored data to transform the call to the method exposed by the normalized API into a call to a method exposed by the custom API for obtaining the access rights for the specified document; receiving the access rights in response to the call to the method exposed by the custom API; and returning the requested access rights in response to the call to the method exposed by the normalized API. storing data defining a custom API for obtaining one or more access rights for a document, wherein the data defining the custom API comprises data identifying one or more parameters of the method exposed by the custom API and wherein the data comprises an extendable markup language, XML, file describing the custom API; exposing a normalized API for obtaining access rights for a document; receiving a call to a method exposed by the normalized API requesting access rights for a specified document, wherein the data defining the custom API further comprises data identifying one of the parameters as corresponding to an identifier for the document for which access rights are requested and wherein the method exposed by the normalized API receives a parameter identifying the document for which access rights are requested; in response to receiving the call to the method exposed by the normalized API, utilizing the stored data to transform the call to the method exposed by the normalized API into a call to a method exposed by the custom API for obtaining the access rights for the specified document; receiving the access rights in response to the call to the method exposed by the custom API; and returning the requested access rights in response to the call to the method exposed by the normalized API.
A compound having formula, wherein R represents C 10 -C 18 alkyl or C 5 -C 18 alkenyl; wherein said alkyl group is a linear or branched hydrocarbyl group that is optionally substituted with one or more hydroxy or alkoxy groups; and wherein said alkenyl group is a linear or branched hydrocarbyl group containing one or more double bonds, and is optionally substituted with one or more hydroxy or alkoxy groups.
Food processor operated by an electric motor, comprising a mixing vessel (4, 4') and a mixer in the mixing vessel, and comprising an electrically powered refrigeration unit, the refrigeration unit being accommodated in the mixing vessel and a preparation region being formed separately from the refrigeration unit in the mixing vessel, in which region a mixing element driven by the mixer can be arranged, characterised in that the refrigeration unit comprises a holding part which can be attached to the mixing vessel (4, 4') in the manner of a lid and in that a compressor and/or the electric motor of the refrigeration unit is housed in a housing part formed on the upper side of the holding part or optionally on the upper side of a top part of the mixing vessel acting as a filling area.
A module unit for the opening and closing of wings, in particular of motor vehicles, comprising a first module comprising at least one actuating unit and a second module comprising at least one lock assembly, wherein the first module and the second module are coupled to each other via a coupling member, in order to, for an actuation of a first module, in particular the actuating unit, actuate a lock of the lock assembly for initiating the opening and/or closing procedure, characterised in that an additional connecting element is arranged between the first module and the second module, wherein due to the connecting element the distance between the modules (2, 3) remains substantially constant when a force F is acting upon at least one of the modules (2, 3).
A method of additive manufacturing, comprising: monitoring a current to a recoater blade in order to identify resistance to movement of the recoater blade; comparing, by a control, the monitored current to a predetermined current; and initiating, by the control, one or more operations in response to the monitored current exceeding the predetermined current, and identifying, by the control, where the monitored current exceeds the predetermined current, wherein the operation is an ultrasonic impact treatment. monitoring a current to a recoater blade in order to identify resistance to movement of the recoater blade; comparing, by a control, the monitored current to a predetermined current; and initiating, by the control, one or more operations in response to the monitored current exceeding the predetermined current, and identifying, by the control, where the monitored current exceeds the predetermined current, wherein the operation is an ultrasonic impact treatment.
Use of biomarker follistatin in combination with at least one further biomarker selected from baseline HbA 1c, proinsulin, or C-peptide in an in vitro/ex vivo method of diagnosing and/or predicting of short-term, high-risk development of type 2 diabetes in a human, wherein short term is within less than 10 years, preferably in less than 5 years, more preferably in less than 4 years.
A strap tightening arrangement for arrangement on a trailer beam, the strap tightening arrangement comprising a beam bracket for arrangement on a trailer beam, a strap tightening device arranged on said beam bracket, characterized in that the strap tightening device is pivotally arranged on the beam bracket, wherein the beam bracket further comprises an openable latch for removable fixation of the beam bracket to said trailer beam.
A narrow linewidth laser, comprising a passive ring resonant cavity, a U-shaped Fabry Perot resonant cavity enveloping the passive ring resonant cavity, and a first gain region, wherein the passive ring resonant cavity and the FP resonant cavity are combined to form a Mach-Zehnder (M-Z) compound external cavity structure such that two free ends of the U-shaped FP resonant cavity forms respectively a first end and a second end of the M-Z compound external cavity structure, the first end is provided in the first gain region, a direct and continuous transmission path around the passive ring resonant cavity is formed between the first end and the second end of the M-Z compound external cavity structure for allowing a transmission directly from the first end to the second end or from the second end to the first end; the M-Z compound external cavity structure is at least used for providing wavelength selection and narrowing laser linewidth; and the first gain region is provided on the outer side of the M-Z compound external cavity structure and is at least used for providing a gain for the whole laser.
Connection apparatus for mounting a cable to a structure, the apparatus including a receiving member for location on the structure, the receiving member comprising a cylindrical hollow body with a diverging mouth, a latch member movably mounted on the outside of the body with a latch part selectively extending into the body, and a mounting member through which the cable can extend, the mounting member being locatable in the body with the latch part selectively engageable with a retaining formation on the mounting member to retain the mounting member in the body and hence the cable mounted to the structure, in which the latch member is selectively movable between an engagement position in which the latch part can engage with the mounting member, and a disengagement position in which the latch part is clear of the mounting member such that the mounting member can be withdrawn from the hollow body, in which the latch member is pivotally mounted on the outside of the hollow body, in which a pivot pin is provided on the latch member engageable with a pivot formation on the outside of the hollow body, characterised in that the latch part is provided on the latch member on one side of the pivot formation, with a resilient member on the other side of the pivot formation urging the latch part into the mounting member.
A coated article for use in an IG unit, comprising; a substrate; and a coating formed over at least a portion of the substrate, wherein the coating comprises: a first separation layer comprising at least one dielectric layer; a first infrared reflective layer deposited over the first separation layer; a second separation layer comprising at least one dielectric layer deposited over the first infrared reflective layer; a second infrared reflective layer deposited over the second separation layer; a third separation layer comprising at least one dielectric layer deposited over the second infrared reflective layer, wherein the third separation layer comprises a first zinc oxide layer, a zinc stannate layer deposited over the first zinc oxide layer, and a second zinc oxide layer deposited over the zinc stannate layer, wherein the zinc oxide layers each have a thickness in the range of 75 Å to 200 Å and the zinc stannate layer has a thickness in the range of 300 Å to 1,000 A; and a third infrared reflective layer deposited over the third separation layer, wherein the coating is identified for a position on the #2 or #3 surface of the IG unit after being mounted. a first separation layer comprising at least one dielectric layer; a first infrared reflective layer deposited over the first separation layer; a second separation layer comprising at least one dielectric layer deposited over the first infrared reflective layer; a second infrared reflective layer deposited over the second separation layer; a third separation layer comprising at least one dielectric layer deposited over the second infrared reflective layer, wherein the third separation layer comprises a first zinc oxide layer, a zinc stannate layer deposited over the first zinc oxide layer, and a second zinc oxide layer deposited over the zinc stannate layer, wherein the zinc oxide layers each have a thickness in the range of 75 Å to 200 Å and the zinc stannate layer has a thickness in the range of 300 Å to 1,000 A; and a third infrared reflective layer deposited over the third separation layer, wherein the coating is identified for a position on the #2 or #3 surface of the IG unit after being mounted.
A method for facilitating secure communication between a client device and an application server, the method being performed in a gateway and comprising the steps of: receiving a client request from the client device, the client request comprising a first fully qualified domain name, FQDN, for the application server, and at least a portion being bound for the application server; forwarding the client request to the application server; receiving an application server response from the application server, the application server response indicating a need to provide authentication; obtaining an original context identifier from an authentication server; generating a modified context identifier based on the original context identifier and a client identifier, being an identifier of the client device; generating a client specific shared key based on the first FQDN, the client identifier and a shared key which is not specific to the client device; and providing the modified context identifier and the client specific shared key to the client device to use for authentication with the application server wherein the step of providing the modified context identifier and the client specific shared key comprises sending a configuration message for configuring over a device management protocol, the configuration message comprising the modified context identifier and the client specific shared key. receiving a client request from the client device, the client request comprising a first fully qualified domain name, FQDN, for the application server, and at least a portion being bound for the application server; forwarding the client request to the application server; receiving an application server response from the application server, the application server response indicating a need to provide authentication; obtaining an original context identifier from an authentication server; generating a modified context identifier based on the original context identifier and a client identifier, being an identifier of the client device; generating a client specific shared key based on the first FQDN, the client identifier and a shared key which is not specific to the client device; and providing the modified context identifier and the client specific shared key to the client device to use for authentication with the application server wherein the step of providing the modified context identifier and the client specific shared key comprises sending a configuration message for configuring over a device management protocol, the configuration message comprising the modified context identifier and the client specific shared key.
A method for transferring user data from a first instance of a first package to a second instance of a second package corresponding to an upgraded version of said first package, characterized in that said first instance is able to get itself in a locked state where said first instance refuses all service requests except the communication with said second instance, in that said first instance stores the user data in a first storage format, in that said first and second instances (A1, A2) are embedded in a secure element, in that said first and second instances (A1, A2) comprise a key and in that said method comprises the following steps: - said first and second instances (A1, A2) perform a mutual authentication using said key and establish a direct channel within the portable secure device only if the mutual authentication is successful, - said first instance prepares a pack by formatting said user data in a transport format and automatically sends the pack to said second instance through the direct channel, - said second instance retrieves the user data from the pack and stores the user data in a second storage format. - said first and second instances (A1, A2) perform a mutual authentication using said key and establish a direct channel within the portable secure device only if the mutual authentication is successful, - said first instance prepares a pack by formatting said user data in a transport format and automatically sends the pack to said second instance through the direct channel, - said second instance retrieves the user data from the pack and stores the user data in a second storage format.
A tunneling apparatus comprising: a drill head including a main body (38; 38a) and a cutter unit and defining a central longitudinal axis, the drill head having a distal end and an oppositely disposed proximal end; a steering shell (36; 36'; 36a; 36a') disposed at the distal end of the drill head and being movable relative to the main body (38; 38a) of the drill head, the steering shell (36; 36'; 36a; 36a') being pivotally movable relative to the main body (38; 38a) of the drill head; and a universal joint (312, 314; 600, 602) disposed between the steering shell (36; 36'; 36a; 36a') and the main body (38; 38a) of the drill head for allowing the steering shell (36; 36'; 36a; 36a') to be pivoted relative to the main body (38; 38a) of the drill head; wherein the cutter unit is disposed on the distal end of the drill head and is adapted to rotate about the central longitudinal axis of the drill head; the tunneling apparatus being characterized in that the steering shell (36; 36'; 36a; 36a') is pivotally movable relative to the cutter unit. a drill head including a main body (38; 38a) and a cutter unit and defining a central longitudinal axis, the drill head having a distal end and an oppositely disposed proximal end; a steering shell (36; 36'; 36a; 36a') disposed at the distal end of the drill head and being movable relative to the main body (38; 38a) of the drill head, the steering shell (36; 36'; 36a; 36a') being pivotally movable relative to the main body (38; 38a) of the drill head; and a universal joint (312, 314; 600, 602) disposed between the steering shell (36; 36'; 36a; 36a') and the main body (38; 38a) of the drill head for allowing the steering shell (36; 36'; 36a; 36a') to be pivoted relative to the main body (38; 38a) of the drill head; wherein the cutter unit is disposed on the distal end of the drill head and is adapted to rotate about the central longitudinal axis of the drill head; the tunneling apparatus being characterized in that the steering shell (36; 36'; 36a; 36a') is pivotally movable relative to the cutter unit.
A method comprising: (a) co-amplifying a set of loci of at least one DNA sample to be analyzed in a multiplex amplification reaction, wherein the product of the reaction is a mixture of amplified alleles from the co-amplified loci in the set, wherein the set of loci includes the 15 STR loci D10S1248, D22S1045, D2S441, D12S391, D16S539, D18S51, D19S433, D21S11, D2S1338, D3S1358, D8S1179, FGA, TH01, VWA and D1S1656 and the amelogenin locus; (b) separating each of the amplified alleles by capillary electrophoresis, wherein the amplified alleles for the loci D10S1248VWA, D16S539 and D2S1338 are labeled with a different fluorescent label to the amplified alleles to the loci D8S1179, D21S11, D18S51, D22S1045, D19S433, TH01, FGA, D2S441, D3S1358, D1S1656, D12S391 and the amelogenin locus, wherein the amplified alleles for the loci D8S1179, D21S11, D18S51 and the amelogenin locus are labeled with a different fluorescent label to the amplified alleles of the loci D10S1248, VWA, D16S539, D2S1338, D22S1045, D19S433, TH01, FGA, D2S441, D3S1358, D1S1656 and D12S391, wherein the amplified alleles for the loci D22S1045, D19S433, TH01 and FGA are labeled with a different fluorescent label to the amplified alleles of the loci D10S1248, VWA, D16S539, D2S1338, D8S1179, D21S11, D18S51, the amelogenin locus, D2S441, D3S1358, D1S1656 and D12S391, wherein the amplified alleles for the loci D2S441, D3S1358, D1S1656 and D12S391 are labeled with a different fluorescent label to the amplified alleles of the loci D10S1248, VWA, D16S539, D2S1338, the amelogenin locus, D8S1179, D21S11, D18S51, D22S1045, D19S433, TH01 and FGA, wherein the method comprises at least five different labels. (a) co-amplifying a set of loci of at least one DNA sample to be analyzed in a multiplex amplification reaction, wherein the product of the reaction is a mixture of amplified alleles from the co-amplified loci in the set, wherein the set of loci includes the 15 STR loci D10S1248, D22S1045, D2S441, D12S391, D16S539, D18S51, D19S433, D21S11, D2S1338, D3S1358, D8S1179, FGA, TH01, VWA and D1S1656 and the amelogenin locus; (b) separating each of the amplified alleles by capillary electrophoresis,