mhurhangee/patent-ind-claim-en huggingface dataset:
Method for continuously determining and/or monitoring a concentration of maltodextrin and/or a concentration of maltose in a mashing process, comprising the following method steps - Preparation of a mash, - Heating the mash to at least a predetermined temperature (T), - Determining a density (p) of the mash using a vibronic sensor and - Determine a sonic velocity (v) in the mash using the vibronic sensor , characterized in that - that a concentration of the sum of maltodextrin and maltose in the mash is determined on the basis of the determined density (p) of the mash, - that a ratio of maltodextrin and maltose is determined on the basis of the determined sonic velocity (v) in the mash, and - that the concentration of maltodextrin and/or the concentration of maltose in the mash is determined on the basis of the determined ratio of maltodextrin and maltose. - Preparation of a mash, - Heating the mash to at least a predetermined temperature (T), - Determining a density (p) of the mash using a vibronic sensor and - Determine a sonic velocity (v) in the mash using the vibronic sensor , - that a concentration of the sum of maltodextrin and maltose in the mash is determined on the basis of the determined density (p) of the mash, - that a ratio of maltodextrin and maltose is determined on the basis of the determined sonic velocity (v) in the mash, and - that the concentration of maltodextrin and/or the concentration of maltose in the mash is determined on the basis of the determined ratio of maltodextrin and maltose.
A fuel injector having a valve for actuating a movement of an injector needle , wherein the valve has a seat plate and an anchor element that optionally rests on the seat plate in order to either seal off or uncover a passage extending through the seat plate , wherein the seat plate comprises: a plate-shaped main body having a first planar face , a second planar face and at least one all-round lateral surface interconnecting the two planar faces , the passage , which extends through the plate-shaped main body from the first planar face to the second planar face , and an insulating layer , which is arranged over the entire all-round lateral surface of the plate-shaped main body , wherein the plate-shaped main body consists of an electrically conductive material, characterised in that the insulating layer comprises or is a ceramic material, and the insulating layer is partly arranged on both planar faces of the plate-shaped main body such that, by way of a contiguous region on the upper planar face that is free from insulating layer, it is possible to establish an electrically conductive connection from said region to the lower planar face , so that elements of an injector arranged thereabove and therebelow are able to communicate with one another via electrical signals. a plate-shaped main body having a first planar face , a second planar face and at least one all-round lateral surface interconnecting the two planar faces , the passage , which extends through the plate-shaped main body from the first planar face to the second planar face , and an insulating layer , which is arranged over the entire all-round lateral surface of the plate-shaped main body , wherein the plate-shaped main body consists of an electrically conductive material, characterised in that the insulating layer comprises or is a ceramic material, and the insulating layer is partly arranged on both planar faces of the plate-shaped main body such that, by way of a contiguous region on the upper planar face that is free from insulating layer, it is possible to establish an electrically conductive connection from said region to the lower planar face , so that elements of an injector arranged thereabove and therebelow are able to communicate with one another via electrical signals.
A method of glass article laser printing of photo image , comprising steps of: i. coating a layer of composition on a treated glass article surface ; ii. ageing said glass article surface from step i ; iii. laser-printing said glass article surface with at least a laser printing means; and iv. surface finishing said glass article surface in step iii by a heating process; wherein said composition comprises ink/color pigment, thinner, catalyst, wetting agent, solvent, binder, flow agent, defoamer, resin, or a combination thereof; and said glass article surface finishing further comprises ultra-violet light irradiation, washing with fluid, lamination, or a combination thereof in step iv ; and the ageing of said glass article surface from step i occurs at room or ambient temperature. i. coating a layer of composition on a treated glass article surface ; ii. ageing said glass article surface from step i ; iii. laser-printing said glass article surface with at least a laser printing means; and iv. surface finishing said glass article surface in step iii by a heating process; wherein said composition comprises ink/color pigment, thinner, catalyst, wetting agent, solvent, binder, flow agent, defoamer, resin, or a combination thereof; and said glass article surface finishing further comprises ultra-violet light irradiation, washing with fluid, lamination, or a combination thereof in step iv ; and the ageing of said glass article surface from step i occurs at room or ambient temperature.
A telescopic column , comprising at least a first and a second telescopic tube telescopically movable relative to each other, and a driving arrangement extending through the first and the second telescopic tubes wherein the telescopic column further comprises: a first static stabilizing device ; a second static stabilizing device ; and a mobile stabilizing device ; wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column. comprising at least a first and a second telescopic tube telescopically movable relative to each other, and a driving arrangement extending through the first and the second telescopic tubes wherein the telescopic column further comprises: a first static stabilizing device ; a second static stabilizing device ; and a mobile stabilizing device ; wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column. a first static stabilizing device ; a second static stabilizing device ; and a mobile stabilizing device ; wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column.
An optical film for protecting a polarizer comprising: a polyester-based substrate film having a refractive index measured as described in the description of 1.6 to 1.7; and a hard coating layer formed on the substrate film and having a refractive index of 1.53 to 1.60 and a thickness of 13 to 25 μ m, wherein the hard coating layer includes a cross-linked copolymer of a first bifunctional or higher (meth)acrylate-based compound having an aromatic ring and a second (meth)acrylate-based compound having an aromatic ring with a structure different from that of the first (meth)acrylate-based compound. a polyester-based substrate film having a refractive index measured as described in the description of 1.6 to 1.7; and a hard coating layer formed on the substrate film and having a refractive index of 1.53 to 1.60 and a thickness of 13 to 25 μ m, wherein the hard coating layer includes a cross-linked copolymer of a first bifunctional or higher (meth)acrylate-based compound having an aromatic ring and a second (meth)acrylate-based compound having an aromatic ring with a structure different from that of the first (meth)acrylate-based compound.
Instrument for treatment of biological tissue, having a housing in which a ballistic device for generating extracorporeal shockwave-like pressure waves and a transmission element permanently placed on the biological tissue for coupling the pressure waves into the body of living beings are arranged, wherein the transmission element couples unfocused, ballistically generated shockwave-like pressure waves into the biological tissue, which can be generated by a reciprocating striking member accelerated to a high terminal velocity of more than 5 m/s by a pneumatic medium under working pressure in a pressure channel and impinging on the transmission element , the front part of the pressure channel being connected to a back-pressure chamber into which the pneumatic medium located distally in front of the striking member can flow upon acceleration of the striking member towards the transmission element , wherein a quick-switching valve releases the pneumatic medium, which is under the working pressure, into the pressure channel as a function of the set striking frequency, characterized in that an opening in the back-pressure chamber limits the pressure building up in the back-pressure chamber .
An electronic package comprising: a plurality of electronic components; an enclosure in which the plurality of electronic components reside, the enclosure comprising a thermally conductive cover overlying the plurality of electronic components; at least one heat transfer element coupled to, or integrated with, the thermally conductive cover of the enclosure and residing between a main surface of the thermally conductive cover of the enclosure and at least one electronic component of the plurality of electronic components, the at least one heat transfer element being thermally conductive and spaced from the at least one electronic component; and a thermal interface material disposed between and coupling the at least one heat transfer element and the at least one electronic component, and facilitating conductive transfer of heat from the at least one electronic component to the thermally conductive cover of the enclosure through the at least one heat transfer element, the thermally conductive cover facilitating spreading and dissipating the transferred heat outwards, characterised in that the enclosure is surrounded by a tamper-respondent sensor, and the tamper-respondent sensor is surrounded by an encapsulant, the at least one heat transfer element and the thermally conductive cover facilitating dissipating the heat from the at least one electronic component, outwards through the tamper-respondent sensor and the surrounding encapsulant. a plurality of electronic components; an enclosure in which the plurality of electronic components reside, the enclosure comprising a thermally conductive cover overlying the plurality of electronic components; at least one heat transfer element coupled to, or integrated with, the thermally conductive cover of the enclosure and residing between a main surface of the thermally conductive cover of the enclosure and at least one electronic component of the plurality of electronic components, the at least one heat transfer element being thermally conductive and spaced from the at least one electronic component; and a thermal interface material disposed between and coupling the at least one heat transfer element and the at least one electronic component, and facilitating conductive transfer of heat from the at least one electronic component to the thermally conductive cover of the enclosure through the at least one heat transfer element, the thermally conductive cover facilitating spreading and dissipating the transferred heat outwards, characterised in that the enclosure is surrounded by a tamper-respondent sensor, and the tamper-respondent sensor is surrounded by an encapsulant, the at least one heat transfer element and the thermally conductive cover facilitating dissipating the heat from the at least one electronic component, outwards through the tamper-respondent sensor and the surrounding encapsulant.
An illumination device , comprising: a housing portion having an opening for inserting an object to be housed, and a bottom face capable of supporting the object to be housed; a light source ; and a light-guide plate having a light-emitting face and guiding a light of the light source to emit light from the light-emitting face , whereby the housing portion includes an opening-side housing portion and a bottom-face-side housing portion , the light-guide plate is sandwiched between the opening-side housing portion and the bottom-face-side housing portion , the opening-side housing portion includes a wall portion covering the light-guide plate on an opening side relative to the light-guide plate , and characterized in that the light-emitting face of the light-guide plate is annular and is arranged to form an acute angle of 5 to 85 degrees with respect to the bottom face so as to directly irradiate the bottom face from a diagonal direction. a housing portion having an opening for inserting an object to be housed, and a bottom face capable of supporting the object to be housed; a light source ; and a light-guide plate having a light-emitting face and guiding a light of the light source to emit light from the light-emitting face , whereby the housing portion includes an opening-side housing portion and a bottom-face-side housing portion , the light-guide plate is sandwiched between the opening-side housing portion and the bottom-face-side housing portion , the opening-side housing portion includes a wall portion covering the light-guide plate on an opening side relative to the light-guide plate , and characterized in that the light-emitting face of the light-guide plate is annular and is arranged to form an acute angle of 5 to 85 degrees with respect to the bottom face so as to directly irradiate the bottom face from a diagonal direction.
A method comprising: receiving a resource assignment ; determining a first set of time-frequency resources in a subframe from the resource assignment ; determining a second set of time-frequency resources in the subframe , the second set of time-frequency resources used for a low latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a regular latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the regular latency transmission has a longer latency than the low latency transmission, characterized by further comprising adjusting log likelihood ratio values of bits corresponding to regular latency data transmission and mapped to the second set of time-frequency resources, wherein decoding further comprises decoding the regular latency transmission in the subframe based on the adjusted log likelihood ratio. receiving a resource assignment ; determining a first set of time-frequency resources in a subframe from the resource assignment ; determining a second set of time-frequency resources in the subframe , the second set of time-frequency resources used for a low latency data transmission, and the second set of time-frequency resources overlapping with at least a portion of the first set of time-frequency resources; and decoding a regular latency data transmission in the subframe based on the determined first and second set of time-frequency resources, where the regular latency transmission has a longer latency than the low latency transmission, characterized by further comprising adjusting log likelihood ratio values of bits corresponding to regular latency data transmission and mapped to the second set of time-frequency resources, wherein decoding further comprises decoding the regular latency transmission in the subframe based on the adjusted log likelihood ratio.
A stretcher with a heated section , the heated section of the stretcher comprising: two opposing electrically conductive elements positioned at, or towards, opposing sides of the stretcher , wherein the opposing electrically conductive elements are connectable to a power source; an electrically conductive layer in electrical contact with the opposing electrically conductive elements , to heat up when the opposing electrically conductive elements are powered by the power source; such that the electrically conductive layer is X-ray transparent to allow a patient to be X-rayed whilst on the stretcher , wherein the stretcher is configured to be foldable, characterised in that the stretcher further comprises: a base layer comprising a flexible plastic sheet; a set of three patient support panels mounted sequentially on the base layer having gaps there between such that the base layer with the three patient support panels is foldable along each gap into a shorter, generally flat folded configuration; wherein in an unfolded configuration the three patient support panels are configured to support, respectively the head, back, and legs of a patient; and further comprising a set of handles along each side of the stretcher in the unfolded configuration; and wherein, when bearing a patient, the stretcher bows along a longitudinal axis such that the combination of the base layer and patient support panels is inhibited from buckling in a region of the patient's back. two opposing electrically conductive elements positioned at, or towards, opposing sides of the stretcher , wherein the opposing electrically conductive elements are connectable to a power source; an electrically conductive layer in electrical contact with the opposing electrically conductive elements , to heat up when the opposing electrically conductive elements are powered by the power source; such that the electrically conductive layer is X-ray transparent to allow a patient to be X-rayed whilst on the stretcher , a base layer comprising a flexible plastic sheet; a set of three patient support panels mounted sequentially on the base layer having gaps there between such that the base layer with the three patient support panels is foldable along each gap into a shorter, generally flat folded configuration; wherein in an unfolded configuration the three patient support panels are configured to support, respectively the head, back, and legs of a patient; and further comprising a set of handles along each side of the stretcher in the unfolded configuration; and wherein, when bearing a patient, the stretcher bows along a longitudinal axis such that the combination of the base layer and patient support panels is inhibited from buckling in a region of the patient's back.
A cleaning tool (202/402) for removing deposits from a jet pump assembly of a nuclear reactor, comprising: a spray head including a front face and a rear face , the front face defining anterior openings , the rear face defining posterior openings ; a removable orifice structure engaged with each of the anterior openings and the posterior openings ; and side plates secured to opposing end faces of the spray head , the side plates protruding beyond the front face to establish a standoff distance from the jet pump assembly during the removing of the deposits. a spray head including a front face and a rear face , the front face defining anterior openings , the rear face defining posterior openings ; a removable orifice structure engaged with each of the anterior openings and the posterior openings ; and side plates secured to opposing end faces of the spray head , the side plates protruding beyond the front face to establish a standoff distance from the jet pump assembly during the removing of the deposits.
A method for recovery of platinum group metals from a spent catalyst, the method comprising: crushing said spent catalyst to obtain a catalyst particulate material including particles having a predetermined grain size; impregnating the catalyst particulate material with a chloride aqueous solution comprising at least one chloride salt and at least one hypochlorite salt; providing a chlorine containing gas and supplying thereof to a reaction zone; subjecting the catalyst particulate material to a chlorinating treatment in the reaction zone at a predetermined temperature for a predetermined time period by putting the catalyst particulate material in contact with the chlorine containing gas to yield a volatile platinum group metal containing chloride; applying an electromagnetic field to the chlorine-containing gas in the reaction zone to provide ionization of chlorine; thereby to cause a chemical reaction between platinum group metals; and cooling said volatile platinum group metal-containing chloride product to convert said volatile platinum group metal-containing chloride product into solid phase platinum group metal-containing materials. crushing said spent catalyst to obtain a catalyst particulate material including particles having a predetermined grain size; impregnating the catalyst particulate material with a chloride aqueous solution comprising at least one chloride salt and at least one hypochlorite salt; providing a chlorine containing gas and supplying thereof to a reaction zone; subjecting the catalyst particulate material to a chlorinating treatment in the reaction zone at a predetermined temperature for a predetermined time period by putting the catalyst particulate material in contact with the chlorine containing gas to yield a volatile platinum group metal containing chloride; applying an electromagnetic field to the chlorine-containing gas in the reaction zone to provide ionization of chlorine; thereby to cause a chemical reaction between platinum group metals; and cooling said volatile platinum group metal-containing chloride product to convert said volatile platinum group metal-containing chloride product into solid phase platinum group metal-containing materials.