mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing pyrolysis gas and/or pyrolysis oil by means of a first reactor and a second reactor separate therefrom, wherein the first reactor is a pyrolysis reactor and the second reactor is a deoxygenation reactor, from at least partially biogenic starting materials comprising the steps of: A) providing the at least partially biogenic starting material selected from lignocellulosic biomasses and lignocellulosic waste materials and a carbon-based, mesoporous and/or microporous catalyst B) thermal treatment of the starting material in the pyrolysis reactor at a temperature T 1 to effect at least partial pyrolysis of the starting material to afford at least liquid, vaporous and/or gaseous pyrolysis products B2) phase separation to effect removal of the solid pyrolysis products and the dust-like particles from the non-solid pyrolysis products C) contacting only the liquid, vaporous and/or gaseous pyrolysis products with the carbon-based catalyst in the deoxygenation reactor at a temperature T 2 between 350°C and 500°C with the proviso that T 1 > T 2 , wherein the difference between the temperatures T 1 and T 2 is at least 10°C, to effect a deoxygenation of the liquid, vaporous and/or gaseous pyrolysis products to afford at least partially deoxygenated liquid, vaporous and/or gaseous pyrolysis products D) collecting the deoxygenated pyrolysis products in a separation apparatus in which a product separation is effected. A) providing the at least partially biogenic starting material selected from lignocellulosic biomasses and lignocellulosic waste materials and a carbon-based, mesoporous and/or microporous catalyst B) thermal treatment of the starting material in the pyrolysis reactor at a temperature T 1 to effect at least partial pyrolysis of the starting material to afford at least liquid, vaporous and/or gaseous pyrolysis products B2) phase separation to effect removal of the solid pyrolysis products and the dust-like particles from the non-solid pyrolysis products C) contacting only the liquid, vaporous and/or gaseous pyrolysis products with the carbon-based catalyst in the deoxygenation reactor at a temperature T 2 between 350°C and 500°C with the proviso that T 1 > T 2 , wherein the difference between the temperatures T 1 and T 2 is at least 10°C, to effect a deoxygenation of the liquid, vaporous and/or gaseous pyrolysis products to afford at least partially deoxygenated liquid, vaporous and/or gaseous pyrolysis products D) collecting the deoxygenated pyrolysis products in a separation apparatus in which a product separation is effected.
A sensor cassette insertable into an analysis module for carrying out in particular electrochemical measurement processes in sample fluids, in particular body fluids or sample fluids obtained by preanalytical preparation of body fluids or of biological sample material, comprising a sensor carrier which is essentially planar and carries a plurality of in particular electrochemical sensor elements for determining chemical and/or physical parameters of the sample fluids, which sensor elements are connected to conductor tracks formed on the sensor carrier , and a cover part arranged on the sensor carrier , in which at least one groove-shaped measuring channel that opens towards the sensor carrier is formed, which measuring channel is intended for the flow of the sample fluid, is connected to at least one in particular electrochemical sensor element of the sensor carrier and is fluidly connected to at least one fluid connector arranged on the side facing away from the sensor carrier , wherein the cover part is designed as a two-component injection molded part comprising a hard component and a soft component , wherein the at least a measuring channel is formed in the soft component over its entire length, characterized in that the soft component forms the at least one fluid connector , which is preferably designed to form at least one internal annular sealing element , the at least one measuring channel and the at least one fluid connector being formed in one piece with one another. a sensor carrier which is essentially planar and carries a plurality of in particular electrochemical sensor elements for determining chemical and/or physical parameters of the sample fluids, which sensor elements are connected to conductor tracks formed on the sensor carrier , and a cover part arranged on the sensor carrier , in which at least one groove-shaped measuring channel that opens towards the sensor carrier is formed, which measuring channel is intended for the flow of the sample fluid, is connected to at least one in particular electrochemical sensor element of the sensor carrier and is fluidly connected to at least one fluid connector arranged on the side facing away from the sensor carrier , wherein the cover part is designed as a two-component injection molded part comprising a hard component and a soft component , wherein the at least a measuring channel is formed in the soft component over its entire length, characterized in that the soft component forms the at least one fluid connector , which is preferably designed to form at least one internal annular sealing element , the at least one measuring channel and the at least one fluid connector being formed in one piece with one another.
A method of producing Compound 1 or a salt thereof, comprising the steps of: (a) reacting a compound of Formula (I), wherein each PG is an amino protecting group, with a compound of Formula (II), wherein X is a leaving group; thereby producing a compound of Formula (III), (b) reacting the compound of Formula (III) with a reducing agent, thereby producing a compound of Formula (IV), (c) reacting the compound of Formula (IV) with an acetylating agent thereby producing a compound of Formula (V), (d) reacting the compound of Formula (V) with a reducing agent, thereby producing a compound of Formula (VI), and (e) deprotecting the compound of Formula (VI), optionally in the presence of an acid, thereby producing Compound 1 or a salt thereof. (a) reacting a compound of Formula (I), wherein each PG is an amino protecting group, with a compound of Formula (II), wherein X is a leaving group; thereby producing a compound of Formula (III), wherein each PG is an amino protecting group, with a compound of Formula (II), wherein X is a leaving group; thereby producing a compound of Formula (III), (b) reacting the compound of Formula (III) with a reducing agent, thereby producing a compound of Formula (IV), (c) reacting the compound of Formula (IV) with an acetylating agent thereby producing a compound of Formula (V), (d) reacting the compound of Formula (V) with a reducing agent, thereby producing a compound of Formula (VI), and (e) deprotecting the compound of Formula (VI), optionally in the presence of an acid, thereby producing Compound 1 or a salt thereof.
Suspension device on an agricultural machine for suspending a machine part, in particular a soil working tool , having at least one pivot arm carrying the machine part, and having a pivot arm carrier which extends preferably transversely with respect to the working direction and on which the pivot arm is pivotably mounted with a bearing body , wherein the bearing body encompasses the pivot arm carrier and, between the bearing body under that portion of the pivot arm carrier embraced by the latter, at least one elastic, elongate bearing element is provided which is at least partially triangular in its cross section and has at least three substantially flat surfaces and which extends with its longitudinal axis substantially parallel to the pivot axis of the pivot arm and to the longitudinal axis of the pivot carrier and, as a result of pivoting movements of the pivot arm , is at least partially deformed, characterized in that the bearing element is at least partially pentagonal in its cross section with five substantially flat surfaces that are angled with respect to one another.
A computer-implemented method for determining the optimum relative position of at least one sensor and/or at least one imaging source of an imaging device for at least one intraoral imaging, and for the non-overlapping imaging of at least two tooth root canals, the method comprises: a) the evaluation of at least one digital image of a patient; and b) the determination of the optimum position of the sensor and the imaging source based on the evaluation mentioned under a), characterized in that the evaluation comprises an evaluation of a volumetric tomography (DVT) imaging, and comprises the simulation of a projection of at least one virtual sensor and/or at least one virtual imaging source from at least two different angles and/or positions for the imaging, wherein, the simulation is carried out several times, and wherein the optimum angle and/or the optimum position is determined so that overlapping of the root canals is minimized, and preferably avoided. a) the evaluation of at least one digital image of a patient; and b) the determination of the optimum position of the sensor and the imaging source based on the evaluation mentioned under a),
An electronic device , comprising: a housing wherein an opening is formed; a printed circuit board, PCB, disposed in the housing; an insulating member coupled to the PCB; a first radiator formed on the insulating member; a camera electrically connected with the PCB, and configured to capture an image through the opening; a third radiator including at least a portion of a ring-shaped metal decoration disposed on the housing, the ring-shaped metal decoration surrounding the opening; a second radiator including at least a portion of a flexible printed circuit board, FPCB, connected to a ground layer of the PCB at one end of the FPCB and connected to the insulation member at an opposite end of the FPCB; and a communication circuit connected to a feed point of the first radiator, wherein the communication circuit is configured to indirectly feed a power to the third radiator and the second radiator through a coupling between the first radiator and the second radiator and a coupling between the second radiator and the third radiator and thereby transmit/receive a signal in a wireless communication frequency band through an electrical path formed by the first radiator, the second radiator, and the third radiator. a housing wherein an opening is formed; a printed circuit board, PCB, disposed in the housing; an insulating member coupled to the PCB; a first radiator formed on the insulating member; a camera electrically connected with the PCB, and configured to capture an image through the opening; a third radiator including at least a portion of a ring-shaped metal decoration disposed on the housing, the ring-shaped metal decoration surrounding the opening; a second radiator including at least a portion of a flexible printed circuit board, FPCB, connected to a ground layer of the PCB at one end of the FPCB and connected to the insulation member at an opposite end of the FPCB; and a communication circuit connected to a feed point of the first radiator, wherein the communication circuit is configured to indirectly feed a power to the third radiator and the second radiator through a coupling between the first radiator and the second radiator and a coupling between the second radiator and the third radiator and thereby transmit/receive a signal in a wireless communication frequency band through an electrical path formed by the first radiator, the second radiator, and the third radiator.
A device for applying a compressive force to the uterus of a human so that the uterus may be compressed between the device and an applied force external of the body to treat postpartum haemorrhage, the device comprising: a contact portion for contacting the uterus and providing a compressive force thereto, and at least two elongate handles each extending from the contact portion along a respective longitudinal axis , wherein the at least two elongate handles are configured to facilitate insertion of the device into the body through the vagina and handling of the device from outside the body when inserted, the at least two handles being further configured to receive a compressive force applied by a user of the device from outside the body when a portion of the at least two handles extends outside the body and transmit the received compressive force to the contact portion when inserted through the vagina so as to apply a compressive force to the uterus; wherein at least a part of the contact portion is configured to be radially moveable relative to the longitudinal axes between a first radial position and a second radial position where the second radial position is radially outward of the first radial position. a contact portion for contacting the uterus and providing a compressive force thereto, and at least two elongate handles each extending from the contact portion along a respective longitudinal axis , wherein the at least two elongate handles are configured to facilitate insertion of the device into the body through the vagina and handling of the device from outside the body when inserted, the at least two handles being further configured to receive a compressive force applied by a user of the device from outside the body when a portion of the at least two handles extends outside the body and transmit the received compressive force to the contact portion when inserted through the vagina so as to apply a compressive force to the uterus; wherein at least a part of the contact portion is configured to be radially moveable relative to the longitudinal axes between a first radial position and a second radial position where the second radial position is radially outward of the first radial position.
Closure for a flexible thin-walled packaging, comprising: - a rigid overcap , directly or indirectly applicable to a spout in the packaging, comprising an annular overcap wall extending along a main axis (X) between an overcap base and an overcap wall edge , said overcap wall being made of a first plastic material; - a collar , coaxial to the overcap wall , suitable to be inserted on a grip portion of the spout so as to remain axially bound thereto; - a flexible lace connecting the collar to the overcap wall ; said overcap comprises a plurality of fins , protruding radially externally from the overcap wall , an annular grip wall , continuous or in sections, made integral with the overcap by said fins, by virtue of the fins , the grip wall is radially spaced from the overcap wall , forming axial anti-suffocation passages ; wherein the closure is characterized in that said lace being made by bi-injection together with the overcap wall and the collar , made of a second plastic material, different from the first plastic material. - a rigid overcap , directly or indirectly applicable to a spout in the packaging, comprising an annular overcap wall extending along a main axis (X) between an overcap base and an overcap wall edge , said overcap wall being made of a first plastic material; - a collar , coaxial to the overcap wall , suitable to be inserted on a grip portion of the spout so as to remain axially bound thereto; - a flexible lace connecting the collar to the overcap wall ; said overcap comprises a plurality of fins , protruding radially externally from the overcap wall , an annular grip wall , continuous or in sections, made integral with the overcap by said fins, by virtue of the fins , the grip wall is radially spaced from the overcap wall , forming axial anti-suffocation passages ; wherein the closure is characterized in that said lace being made by bi-injection together with the overcap wall and the collar , made of a second plastic material, different from the first plastic material.
Method for power control for an induction cooking hob comprising several inductors in operation, the power of each inductor being governed by a switching member (Com) according to a setpoint power (P c ) associated with said inductor , and a temperature sensor (C T ) configured to measure a temperature (T m ) representing the temperature of all said switching members (Com), said method comprises a step of detecting a temperature value (T m ) measured by said temperature sensor (C T ) greater than or equal to a warning threshold (T s ), characterized in that said method also comprises the following successive steps: - determining, for each switching member (Com), over a predefined period of time (Tf), a number of switching operations (Nc) at a current or voltage value greater than or equal to respectively a preset maximum current or voltage threshold (Is, Us); - identifying at least one switching member (Com) generating heating according to said number of switching operations (Nc) determined for each switching member (Com); and - reducing said setpoint temperature (Pc) associated with said inductor governed by said at least one identified switching member (Com) generating heating. - determining, for each switching member (Com), over a predefined period of time (Tf), a number of switching operations (Nc) at a current or voltage value greater than or equal to respectively a preset maximum current or voltage threshold (Is, Us); - identifying at least one switching member (Com) generating heating according to said number of switching operations (Nc) determined for each switching member (Com); and - reducing said setpoint temperature (Pc) associated with said inductor governed by said at least one identified switching member (Com) generating heating.
A method of configuring a personal computing device for communication with an aerosol generation device over a short-range wireless communication connection , the method comprising: a native application launching a web browser on the personal computing device ; the web browser launching a progressive web application, PWA, , on the personal computing device ; and the native application providing a resource to the web browser , which resource causes the web browser to process a call received by the web browser from the PWA intended for the aerosol generation device by directing a command based on the call to the native application , the command causing the native application to cause the personal communication device to communicate with the aerosol generation device over the short-range wireless communication connection . a native application launching a web browser on the personal computing device ; the web browser launching a progressive web application, PWA, , on the personal computing device ; and the native application providing a resource to the web browser , which resource causes the web browser to process a call received by the web browser from the PWA intended for the aerosol generation device by directing a command based on the call to the native application , the command causing the native application to cause the personal communication device to communicate with the aerosol generation device over the short-range wireless communication connection .
A system for controlling unmanned aircraft comprising: at least one ground control device having a transmitter configured for operation in an existing cellular network used primarily for mobile telephone communication; and an unmanned aerial vehicle, UAV, including a mobile device having a receiver configured for operation in the existing cellular network , wherein the UAV is responsive to communications from the at least one ground control device , including communications received via the receiver, wherein the communications received by the receiver of the UAV are command and control data to one or more UAVs, wherein the UAV includes a bridging control system including a controller configured to relay the command and control data to the one or more UAVs that are outside the range of the existing cellular network . at least one ground control device having a transmitter configured for operation in an existing cellular network used primarily for mobile telephone communication; and an unmanned aerial vehicle, UAV, including a mobile device having a receiver configured for operation in the existing cellular network , wherein the UAV is responsive to communications from the at least one ground control device , including communications received via the receiver, wherein the communications received by the receiver of the UAV are command and control data to one or more UAVs, wherein the UAV includes a bridging control system including a controller configured to relay the command and control data to the one or more UAVs that are outside the range of the existing cellular network .
A handling system within a work area (P) comprising a snow groomer and a power supply apparatus for powering the snow groomer along a path (P1) inside the work area (P); wherein power supply apparatus comprises a connector and a slider ; the snow groomer comprising an electric machine assembly , at least one track coupled to the electric machine assembly , and an electric connection device connectable to the power supply apparatus outside the snow groomer and connected to the electric machine assembly to exchange electrical energy with the power supply apparatus during operation of snow groomer ; wherein the electric connection device comprises an electric cable connectable to the power supply apparatus via the connector of the slider ; wherein the electric connection device comprises a measuring device that allows the length of the unwound electric cable to be measured; the handling system comprises a control unit for receiving data regarding the position of the slider along the path (P1), the angular movement of the connector and the measurement of the length of unwound cable from the snow groomer and from the power supply apparatus , and for sending data regarding the optimal path to the snow groomer .
An adhesive patch for a medical device, comprising: a first backing layer to be coupled to the medical device, the first backing layer composed of a first material; a first adhesive layer coupled to the first backing layer ; a second backing layer coupled to the first adhesive layer , the second backing layer composed of a second material, the second material different than the first material; and a biocompatible second adhesive layer coupled to the second backing layer , the second adhesive layer to be coupled to an anatomy; characterized in that one of the first adhesive layer , the second backing layer and the second adhesive layer comprise a medicament, and the adhesive patch further comprises a control device to release the medicament onto the anatomy. a first backing layer to be coupled to the medical device, the first backing layer composed of a first material; a first adhesive layer coupled to the first backing layer ; a second backing layer coupled to the first adhesive layer , the second backing layer composed of a second material, the second material different than the first material; and a biocompatible second adhesive layer coupled to the second backing layer , the second adhesive layer to be coupled to an anatomy; characterized in that one of the first adhesive layer , the second backing layer and the second adhesive layer comprise a medicament, and the adhesive patch further comprises a control device to release the medicament onto the anatomy.
Carrier loaded with algae, comprising a multidimensional textile comprised of a flexible material with a specific surface area greater than 25 m 2 per m 2 textile and an average pore size between 25 μm and 500 μm, wherein said textile comprises multifilament yarns.