mhurhangee/ep-ind-claims huggingface dataset:
A pre-formulation comprising a low viscosity, non-liquid crystalline, mixture of: a. 25-55 wt.% of at least one diacyl glycerol and/or at least one tocopherol; b. 25-55 wt.% of at least one phospholipid component comprising phospholipids having i. polar head groups comprising more than 50% phosphatidyl ethanolamine, and ii. two acyl chains each independently having 16 to 20 carbons wherein at least one acyl chain has at least one unsaturation in the carbon chain, and there are no more than four unsaturations over two carbon chains; wherein said phospholipid component b) comprises more than 50% phosphatidyl ethanolamine; c. 5-25 wt.% of at least one biocompatible, oxygen containing, low viscosity organic solvent; wherein 0.1-10 wt.% of at least one peptide active agent comprising at least one somatostatin receptor agonist is dissolved or dispersed in the low viscosity mixture; wherein the pre-formulation has a viscosity of 0.1 to 5000 mPas at 20 °C; and wherein the pre-formulation forms, or is capable of forming, at least one non-lamellar liquid crystalline phase structure upon contact with an aqueous fluid. a. 25-55 wt.% of at least one diacyl glycerol and/or at least one tocopherol; b. 25-55 wt.% of at least one phospholipid component comprising phospholipids having i. polar head groups comprising more than 50% phosphatidyl ethanolamine, and ii. two acyl chains each independently having 16 to 20 carbons wherein at least one acyl chain has at least one unsaturation in the carbon chain, and there are no more than four unsaturations over two carbon chains; wherein said phospholipid component b) comprises more than 50% phosphatidyl ethanolamine; i. polar head groups comprising more than 50% phosphatidyl ethanolamine, and ii. two acyl chains each independently having 16 to 20 carbons wherein at least one acyl chain has at least one unsaturation in the carbon chain, and there are no more than four unsaturations over two carbon chains; c. 5-25 wt.% of at least one biocompatible, oxygen containing, low viscosity organic solvent;
A glass article, the glass article having a thickness t and a compressive layer having a compressive stress CS s in a range from about 700 MPa up to about 1200 MPa at a surface of the glass article, wherein: a. the compressive layer extends from the surface to a depth of compression DOC of at least about 45 μm and has a compressive stress profile; and b. the compressive stress profile comprises: i. a first portion a extending from the surface to a depth d a and having a slope m a, wherein 3μm ≤ d a ≤ 12 μm and -40 MPa/μm ≥ m a ≥ - 200 MPa/μm; ii. a second portion b extending from d b to up to the depth of compression DOC and having a slope m b, wherein -2 MPa/μm ≥ m b ≥ -8 MPa/μm; and iii. a transition region extending from d a to d b, the transition region having a slope that transitions from slope m a to slope m b. a. the compressive layer extends from the surface to a depth of compression DOC of at least about 45 μm and has a compressive stress profile; and b. the compressive stress profile comprises: i. a first portion a extending from the surface to a depth d a and having a slope m a, wherein 3μm ≤ d a ≤ 12 μm and -40 MPa/μm ≥ m a ≥ - 200 MPa/μm; ii. a second portion b extending from d b to up to the depth of compression DOC and having a slope m b, wherein -2 MPa/μm ≥ m b ≥ -8 MPa/μm; and iii. a transition region extending from d a to d b, the transition region having a slope that transitions from slope m a to slope m b. i. a first portion a extending from the surface to a depth d a and having a slope m a, wherein 3μm ≤ d a ≤ 12 μm and -40 MPa/μm ≥ m a ≥ - 200 MPa/μm; ii. a second portion b extending from d b to up to the depth of compression DOC and having a slope m b, wherein -2 MPa/μm ≥ m b ≥ -8 MPa/μm; and iii. a transition region extending from d a to d b, the transition region having a slope that transitions from slope m a to slope m b.
A method for handing over a relay node, RN, from a source donor evolved Node B, DeNB, (302, 304) to a target DeNB (302, 304), the method comprising: the source DeNB determining to handover the RN from a cell served by the source DeNB to a cell served by the target DeNB, wherein determining to handover the RN is based on at least one of measurements performed by the source DeNB or message received from a mobility management entity, MME; the source DeNB sending a handover command to the RN, the handover command indicating that the RN is to handover from the source DeNB to the target DeNB; and the source DeNB sending bearer context information to the target DeNB for at least one wireless transmit receive unit, WTRU, (320a, 320b) connected to a cell served by the RN, wherein the bearer context information comprises information that allows the target DeNB to accept the RN while the at least one WTRU connected to the cell served by the RN remains in a connected state throughout the handover, the source DeNB receiving a DeNB list; and the source DeNB selecting the target DeNB for handover of the RN based on the DeNB list. the source DeNB determining to handover the RN from a cell served by the source DeNB to a cell served by the target DeNB, wherein determining to handover the RN is based on at least one of measurements performed by the source DeNB or message received from a mobility management entity, MME; the source DeNB sending a handover command to the RN, the handover command indicating that the RN is to handover from the source DeNB to the target DeNB; and the source DeNB sending bearer context information to the target DeNB for at least one wireless transmit receive unit, WTRU, (320a, 320b) connected to a cell served by the RN, wherein the bearer context information comprises information that allows the target DeNB to accept the RN while the at least one WTRU connected to the cell served by the RN remains in a connected state throughout the handover, the source DeNB receiving a DeNB list; and the source DeNB selecting the target DeNB for handover of the RN based on the DeNB list.
A negative electrode material for a lithium ion secondary battery, comprising: core particles of silicon; and a coating layer of carbon, coating the surface of the core particles of the silicon, wherein the core particles of the silicon are 5 nm or more and 100 nm or less in average particle size, and the peak area for silicon oxide near 104 eV is 10% or less than the sum of peak areas for silicon and silicon-carbon near 100 eV in electron spectroscopy for chemical analysis.
A method for producing a pipeline element, in particular a pipeline element of a fire extinguishing installation, wherein the method comprises the steps: - providing a first hollow body and a second hollow body, - positioning the hollow bodies relative to one another in a welding zone such that the connection of the hollow bodies can be performed in the welding zone, - positioning a collecting container within the first and/or second hollow body in the region of the welding zone, and - welding the first hollow body to the second hollow body in the welding zone such that the pipeline element is obtained, wherein a fully encircling weld seam is generated which has a root extending on the inside (118, 119) of the pipeline element, and collecting, by means of the collecting container, weld spatter that occurs on the inside (118, 119) of the pipeline element during the welding process. - providing a first hollow body and a second hollow body, - positioning the hollow bodies relative to one another in a welding zone such that the connection of the hollow bodies can be performed in the welding zone, - positioning a collecting container within the first and/or second hollow body in the region of the welding zone, and - welding the first hollow body to the second hollow body in the welding zone such that the pipeline element is obtained, wherein a fully encircling weld seam is generated which has a root extending on the inside (118, 119) of the pipeline element, and
A carpet or carpet tile comprising a textile top cloth, a precoating layer and a backing layer, wherein said backing layer comprises a backing composition, wherein said backing composition comprises: - a natural resin, preferably a rosin or rosin derivative; - a natural oil which is optionally refined or modified, preferably a vegetable oil which is optionally refined or modified; - optionally, a thermoplastic elastomer; and - a filler. - a natural resin, preferably a rosin or rosin derivative; - a natural oil which is optionally refined or modified, preferably a vegetable oil which is optionally refined or modified; - optionally, a thermoplastic elastomer; and - a filler.
A mobile radiography apparatus comprising: a portable transport frame; a sectioned vertical column mounted on the frame and defining a vertical axis, the sectioned vertical column comprising a stationary base section, the stationary base section having a first vertical position relative to the vertical axis, the sectioned vertical column further comprising a movable section that is translatable in vertical telescoping fashion with respect to the stationary base section to a variable vertical position along the vertical axis; a counterbalance apparatus coupled to the movable section of the sectioned vertical column and comprising an actuator that is energizable to translate in the telescoping fashion the movable section along the vertical axis; a boom apparatus supporting an x-ray source and coupled to the movable section using a boom transport mechanism, the boom transport mechanism for moving the boom apparatus along a length of the movable section for vertical displacement of the boom apparatus to a height position; characterised in that it further comprises a counterweight that is movable along a vertical path within the sectioned vertical column and is operatively coupled to the boom apparatus for supporting the vertical displacement of boom apparatus; and a height sensing element that provides a signal that is indicative of the height position of the boom apparatus. a portable transport frame; a sectioned vertical column mounted on the frame and defining a vertical axis, the sectioned vertical column comprising a stationary base section, the stationary base section having a first vertical position relative to the vertical axis, the sectioned vertical column further comprising a movable section that is translatable in vertical telescoping fashion with respect to the stationary base section to a variable vertical position along the vertical axis; a counterbalance apparatus coupled to the movable section of the sectioned vertical column and comprising an actuator that is energizable to translate in the telescoping fashion the movable section along the vertical axis; a boom apparatus supporting an x-ray source and coupled to the movable section using a boom transport mechanism, the boom transport mechanism for moving the boom apparatus along a length of the movable section for vertical displacement of the boom apparatus to a height position; characterised in that it further comprises a counterweight that is movable along a vertical path within the sectioned vertical column and is operatively coupled to the boom apparatus for supporting the vertical displacement of boom apparatus; and a height sensing element that provides a signal that is indicative of the height position of the boom apparatus.
A label-affixing machine for affixing a label, which is conveyed by a label conveying body, to a back surface of a product being conveyed, characterised in that the label-affixing machine comprises: a label holding unit configured to hold the label so that an adhesive surface of the label faces outward; a pressing mechanism configured to press the label conveying body, which is disposed on a side facing the label holding unit, against the adhesive surface of the held label by moving the label conveying body toward the label holding unit; and a controller configured to control drive of the label conveying body and the pressing mechanism to affix the label to the back surface of the product. a label holding unit configured to hold the label so that an adhesive surface of the label faces outward; a pressing mechanism configured to press the label conveying body, which is disposed on a side facing the label holding unit, against the adhesive surface of the held label by moving the label conveying body toward the label holding unit; and a controller configured to control drive of the label conveying body and the pressing mechanism to affix the label to the back surface of the product.
A microcontroller arrangement comprising: - a chip having a microcontroller unit MCU provided thereon as an integrated circuit, the MCU comprising: -- one or several resource components (R-C) which respectively have a configuration which respectively is switchable between at least two different possible configurations; and -- a resource manager which is devised to receive a configuration string (fep) and to switch the one or several resource components in a configuration corresponding to the configuration string; - a secondary chip, further comprised by the microcontroller arrangement and electrically coupled to the chip, having a secure element provided thereon as an integrated circuit; - a secure channel infrastructure, devised for operating a secure channel between the resource manager and the secure element, so that the resource manager is under exclusive control of the secure element, characterized in that: the resource manager comprises a register which is devised to receive the configuration string (fep), wherein only the secure element has the possibility of writing access to the register. - a chip having a microcontroller unit MCU provided thereon as an integrated circuit, the MCU comprising: -- one or several resource components (R-C) which respectively have a configuration which respectively is switchable between at least two different possible configurations; and -- a resource manager which is devised to receive a configuration string (fep) and to switch the one or several resource components in a configuration corresponding to the configuration string; -- one or several resource components (R-C) which respectively have a configuration which respectively is switchable between at least two different possible configurations; and -- a resource manager which is devised to receive a configuration string (fep) and to switch the one or several resource components in a configuration corresponding to the configuration string; - a secondary chip, further comprised by the microcontroller arrangement and electrically coupled to the chip, having a secure element provided thereon as an integrated circuit; - a secure channel infrastructure, devised for operating a secure channel between the resource manager and the secure element, so that the resource manager is under exclusive control of the secure element, characterized in that: the resource manager comprises a register which is devised to receive the configuration string (fep), wherein only the secure element has the possibility of writing access to the register.
Computer implemented method for improving prediction relating to the production of a polymeric product, wherein a prediction model is provided for describing a functional relationship between production parameters, which production parameters comprise formulation portions data specifying raw material portions used for the production of a respective polymeric product and comprise processing parameters data specifying machine process properties during the production of that polymeric product, and product properties data associated with that polymeric product on a computer system, which production parameters and product properties data form data entry properties for a respective polymeric product, wherein user input is provided comprising user product targets specifying only a part of the data entry properties, wherein a new data entry with data entry properties is generated by the computer system for realizing the user product targets and entered into a formulation database of data entries with data entry properties and wherein for the new data entry the specified data entry properties are determined, characterized in that the new data entry is generated by selecting a base data entry from the formulation database and modifying at least one data entry property of the base data entry based on applying the user product targets to the prediction model, that a reward metric is determined by the computer system based on the determined data entry properties, that based upon the reward metric the prediction model is updated by the computer system, that the user input comprises a user selection of raw materials from a list of raw materials predefined in the computer system, thereby defining combinations of the raw materials for a polymeric formulation, that for the new data entry the formulation portions data specifies raw material portions from the user selection of raw materials, that the reward metric is a proximity metric based on compliance between the determined data entry properties and the user product targets and that the prediction model is updated such that for a proximity metric indicating higher compliance, the modification of the modified at least one data entry property is reinforced and that for a proximity metric indicating a lower compliance, the modification of the at least one data property is weakened.
A third-party node, wherein the third-party node comprises: a transceiver module, configured to receive, in a specified first spectrum, a request message sent by a network side device that belongs to an operator different from an operator of the third-party node, wherein the request message is used to request the third-party node to forward data, which is sent from the network side device, to a terminal served by the network side device, and data, which is sent from the terminal, to the network side device; a processing module, configured to: after it is determined to accept the request of the network side device, return a response message to the network side device in the first spectrum; and a forwarding module, configured to forward, in a second spectrum, the data that is transmitted between the network side device and the terminal, wherein the second spectrum is a spectrum of the operator to which the network side device belongs, wherein before receiving the request message sent by the network side device, the transceiver module is further configured to: after receiving, in the first spectrum, a broadcast message sent by the network side device, send, to the network side device in the first spectrum, a feedback message used to indicate that the third-party node is in an idle state; or when it is determined by the third-party node that the third-party node is in an idle state, send, in the first spectrum, a pilot signal used to indicate that the third-party node is in an idle state. a transceiver module, configured to receive, in a specified first spectrum, a request message sent by a network side device that belongs to an operator different from an operator of the third-party node, wherein the request message is used to request the third-party node to forward data, which is sent from the network side device, to a terminal served by the network side device, and data, which is sent from the terminal, to the network side device; a processing module, configured to: after it is determined to accept the request of the network side device, return a response message to the network side device in the first spectrum; and a forwarding module, configured to forward, in a second spectrum, the data that is transmitted between the network side device and the terminal, wherein the second spectrum is a spectrum of the operator to which the network side device belongs, after receiving, in the first spectrum, a broadcast message sent by the network side device, send, to the network side device in the first spectrum, a feedback message used to indicate that the third-party node is in an idle state; or when it is determined by the third-party node that the third-party node is in an idle state, send, in the first spectrum, a pilot signal used to indicate that the third-party node is in an idle state.
Power converter with at least one phase module, wherein the phase module has - at least one switching element with a cut-off voltage ranging from 1200V to 1700V and - a heat sink wherein the switching element is connected to the heat sink, wherein the connection between switching element and heat sink is a non-detachable connection, which is embodied soldered, sintered or glued, wherein the phase module has at least one electrical terminal, characterised in that the phase module is fastened to a busbar in the power converter by means of the electrical terminal without additional mechanical fixing. - at least one switching element with a cut-off voltage ranging from 1200V to 1700V and - a heat sink wherein the switching element is connected to the heat sink, wherein the connection between switching element and heat sink is a non-detachable connection, which is embodied soldered, sintered or glued, wherein the phase module has at least one electrical terminal, characterised in that the phase module is fastened to a busbar in the power converter by means of the electrical terminal without additional mechanical fixing.
A method of manufacturing a microelectromechanical system (MEMS) device comprising: providing a substrate; forming a moveable micromachined member (100, 301) and a mechanical structure that secures the moveable micromachined member (100, 301) to the substrate, thermally isolates the moveable micromachined member (100, 301) from the substrate and provides a conduction path to enable heating of the moveable micromachined member (100, 301), wherein the moveable micromachined member (100, 301) comprises a degenerately-doped semiconductor; characterized by heating the moveable micromachined member (100, 301) via the mechanical structure to a temperature of at least 300 degrees Celsius and subsequently cooling the moveable micromachined member (100, 301) at a rate of at least 10 4 degrees Celsius per second in iterations of one or more cycles, to obtain a predetermined ratio of an electrically active dopant concentration to overall dopant concentration. providing a substrate; forming a moveable micromachined member (100, 301) and a mechanical structure that secures the moveable micromachined member (100, 301) to the substrate, thermally isolates the moveable micromachined member (100, 301) from the substrate and provides a conduction path to enable heating of the moveable micromachined member (100, 301), wherein the moveable micromachined member (100, 301) comprises a degenerately-doped semiconductor; characterized by heating the moveable micromachined member (100, 301) via the mechanical structure to a temperature of at least 300 degrees Celsius and subsequently cooling the moveable micromachined member (100, 301) at a rate of at least 10 4 degrees Celsius per second in iterations of one or more cycles, to obtain a predetermined ratio of an electrically active dopant concentration to overall dopant concentration.