mhurhangee/patent-ind-claim-en huggingface dataset:
A distributor comprising: a first plate , a second plate , and a third plate , the first plate being stacked on the second plate in a stacking direction, the second plate being stacked on the third plate in the stacking direction, the first plate having a first through hole , the second plate having a first hollow portion communicating with the first through hole , a plurality of second hollow portions communicating with the first hollow portion , and a plurality of third hollow portions each communicating with its associated one of the plurality of second hollow portions , the third plate having a plurality of second through holes each communicating with its associated one of the plurality of third hollow portions , the first hollow portion having an elongate shape having a length along which a fluid flows and a width orthogonal to the length in a plane perpendicular to the stacking direction, the plurality of second hollow portions each having an elongate shape having a length along which the fluid flows and a width orthogonal to the length in the plane perpendicular to the stacking direction, wherein L1 is larger than L2 where L1 is a first dimension that is the width of the first hollow portion , and L2 is a second dimension that is the width of each of the plurality of second hollow portions , characterized in that the third hollow portions each includes a protrusion protruding vertically downward. a first plate , a second plate , and a third plate , the first plate being stacked on the second plate in a stacking direction, the second plate being stacked on the third plate in the stacking direction, the first plate having a first through hole , the second plate having a first hollow portion communicating with the first through hole , a plurality of second hollow portions communicating with the first hollow portion , and a plurality of third hollow portions each communicating with its associated one of the plurality of second hollow portions , a first hollow portion communicating with the first through hole , a plurality of second hollow portions communicating with the first hollow portion , and a plurality of third hollow portions each communicating with its associated one of the plurality of second hollow portions , the third plate having a plurality of second through holes each communicating with its associated one of the plurality of third hollow portions , the first hollow portion having an elongate shape having a length along which a fluid flows and a width orthogonal to the length in a plane perpendicular to the stacking direction, the plurality of second hollow portions each having an elongate shape having a length along which the fluid flows and a width orthogonal to the length in the plane perpendicular to the stacking direction, wherein L1 is larger than L2 where L1 is a first dimension that is the width of the first hollow portion , and L2 is a second dimension that is the width of each of the plurality of second hollow portions , characterized in that the third hollow portions each includes a protrusion protruding vertically downward.
Method for indirect adiabatic evaporative cooling and dew point cooling in an air/air heat exchanger comprising an air conditioning unit with at least one air/air plate heat exchanger (WT) with outside air (AL) flowing through it in one direction, forming the supply air (ZL) for the interior of the building after cooling in the air/air plate heat exchanger, - in which the exhaust air (ABL) from the building flows through the air/air plate heat exchanger in the transverse and/or opposite direction, absorbing some of the heat from the outside air (AL) and becoming outgoing air (FL), - in which water is sprayed into the exhaust air (ABL), notably into the spaces between the plates (outgoing air gaps) of the plate heat exchanger (WT) that conduct the exhaust air, for adiabatic cooling of the exhaust air (ABL) in order to increase the cooling capacity, and - in which at least a portion (AT) of the exhaust air (ABL) is branched off before the entry of the exhaust air (ABL) into the heat exchange zone, and is conducted into those spaces between the plates (exhaust air gaps) of the heat exchanger (WT) that lie in the heat exchange zone (B), characterised by the branched part (AT) of the exhaust air (ABL) flowing into the centre area of the heat exchange zone (B), into the spaces between the plates (outgoing air gaps) through which the exhaust air (ABL) flows. - in which the exhaust air (ABL) from the building flows through the air/air plate heat exchanger in the transverse and/or opposite direction, absorbing some of the heat from the outside air (AL) and becoming outgoing air (FL), - in which water is sprayed into the exhaust air (ABL), notably into the spaces between the plates (outgoing air gaps) of the plate heat exchanger (WT) that conduct the exhaust air, for adiabatic cooling of the exhaust air (ABL) in order to increase the cooling capacity, and - in which at least a portion (AT) of the exhaust air (ABL) is branched off before the entry of the exhaust air (ABL) into the heat exchange zone, and is conducted into those spaces between the plates (exhaust air gaps) of the heat exchanger (WT) that lie in the heat exchange zone (B),
A process for the manufacture of synthetic food-grade astaxanthin comprising the following steps: a) Providing synthetic astaxanthin crystals containing dichloromethane; and b) Adding methanol to the synthetic astaxanthin crystals in an amount to obtain a suspension of synthetic astaxanthin in methanol, whereby the amount of synthetic astaxanthin in said suspension is in the range of from 5 to 70 weight-%, based on the total weight of the suspension; and c) Heating up the suspension obtained in step b) to a temperature in the range of from 80 to 140°C in a closed reactor; and d) Maintaining the suspension at a temperature in the range as given for step c); and e) Removing residual dichloromethane and methanol by distillation; and f) Repeating steps b), d) and e) until the content of dichloromethane in the synthetic astaxanthin is ≤ 250 ppm; and g) Cooling the methanolic synthetic astaxanthin suspension, whereby its content of dichloromethane is ≤ 250 ppm, to a temperature in the range of from 10 to 35°C; and h) Filtering off the synthetic astaxanthin crystals and optionally drying them; whereby a synthetic astaxanthin suitable for human consumption is obtained. a) Providing synthetic astaxanthin crystals containing dichloromethane; and b) Adding methanol to the synthetic astaxanthin crystals in an amount to obtain a suspension of synthetic astaxanthin in methanol, whereby the amount of synthetic astaxanthin in said suspension is in the range of from 5 to 70 weight-%, based on the total weight of the suspension; and c) Heating up the suspension obtained in step b) to a temperature in the range of from 80 to 140°C in a closed reactor; and d) Maintaining the suspension at a temperature in the range as given for step c); and e) Removing residual dichloromethane and methanol by distillation; and f) Repeating steps b), d) and e) until the content of dichloromethane in the synthetic astaxanthin is ≤ 250 ppm; and g) Cooling the methanolic synthetic astaxanthin suspension, whereby its content of dichloromethane is ≤ 250 ppm, to a temperature in the range of from 10 to 35°C; and h) Filtering off the synthetic astaxanthin crystals and optionally drying them; whereby a synthetic astaxanthin suitable for human consumption is obtained.
Atomic force microscope measuring device comprising a micro-cantilever for probing a sample, wherein the measuring device comprises an optical microscope , preferably a fluorescence microscope, a confocal microscope, a fluorescence energy transfer (FRET) microscope, a DIC and/or phase contrast microscope, all of those preferably construed as an inverted microscope; and an illumination source , wherein the illumination source is located at the opposite side of the cantilever with respect to the optical microscope , wherein the measuring device comprises an intensity modulated light source exciting the cantilever , wherein the cantilever is transparent for a wavelength of the visual spectrum, such that the light generated by the illumination source can go through the sample and be collected by the optical microscope .
A motorcycle comprising: a head pipe ; a seat ; a fuel tank disposed between the head pipe and the seat ; a combustion engine (E) disposed below the fuel tank ; a canister disposed in a region from a gap between the head pipe and the fuel tank in a front-rear direction to a space below a front portion of the fuel tank , the canister containing an adsorbent configured to adsorb fuel evaporative gas from the fuel tank ; a throttle body disposed at the combustion engine (E), the throttle body forming an air intake passage on which a throttle valve is provided; and a communication pipe connecting the canister and the air intake passage , the communication pipe having one end supported by the throttle body and the other end supported by the combustion engine (E), the motorcycle further comprising: an air intake chamber disposed above a crankcase of the combustion engine (E), the air intake chamber being configured to store intake air for the combustion engine (E), characterized in that the canister is disposed frontward of the air intake chamber ; and the motorcycle further comprises an air intake duct configured to introduce incoming wind through one lateral side of the canister , which is an outer side in a widthwise direction of the motorcycle, into the air intake chamber . a head pipe ; a seat ; a fuel tank disposed between the head pipe and the seat ; a combustion engine (E) disposed below the fuel tank ; a canister disposed in a region from a gap between the head pipe and the fuel tank in a front-rear direction to a space below a front portion of the fuel tank , the canister containing an adsorbent configured to adsorb fuel evaporative gas from the fuel tank ; a throttle body disposed at the combustion engine (E), the throttle body forming an air intake passage on which a throttle valve is provided; and a communication pipe connecting the canister and the air intake passage , the communication pipe having one end supported by the throttle body and the other end supported by the combustion engine (E), the motorcycle further comprising: an air intake chamber disposed above a crankcase of the combustion engine (E), the air intake chamber being configured to store intake air for the combustion engine (E), characterized in that the canister is disposed frontward of the air intake chamber ; and the motorcycle further comprises an air intake duct configured to introduce incoming wind through one lateral side of the canister , which is an outer side in a widthwise direction of the motorcycle, into the air intake chamber . an air intake chamber disposed above a crankcase of the combustion engine (E), the air intake chamber being configured to store intake air for the combustion engine (E), characterized in that the canister is disposed frontward of the air intake chamber ; and the motorcycle further comprises an air intake duct configured to introduce incoming wind through one lateral side of the canister , which is an outer side in a widthwise direction of the motorcycle, into the air intake chamber .
A method in an access point, AP, for broadcasting a beacon signal in a high frequency radio communication network, wherein the AP is in an AP cluster in the high frequency radio communication network, the AP cluster containing two or more APs, wherein each AP in the AP cluster has a plurality of beams directed to different directions, the method comprising: synchronously with other APs in the AP cluster, broadcasting a same beacon signal over a beam with a same beam identification as beams from the other APs to form a clustered beacon signal at a beacon signal receiver, the clustered beacon signal being a superposition of the same beacon signal broadcasted by more than one of the APs, and the broadcast beacon signal containing the beam identification and an identification of the AP cluster.
A device of a convertible vehicle with an element which is movable during a hood movement, is connected to a further element by means of an articulation means and is pivotable relative to the further element about a pivot axis , wherein a spring means is provided which applies force to the movable element relative to the further element for pivoting about the pivot axis , wherein the spring means is arranged with its axis offset with respect to the pivot axis of the movable element , characterised in that the articulation means is designed as a 6-joint linkage or as an overconstrained 4-joint parallelogram and comprises a first lever and a second lever which are each connected to one another in an articulated manner via a first coupling element and a second coupling element , wherein the movable element is mounted relative to the further element in a first point of articulation of the first lever forming the pivot axis, and the spring means is arranged in the region of a second point of articulation of the second lever , and a transmission of a rotational movement of the second lever about the second point of articulation caused by the spring means to a rotational movement of the first lever about the first point of articulation is effected by the articulation means .
A cooling system, comprising: two or more cooling subsystems (S) which are fluidly separate from each other and thermally coupled to each other, wherein each of the two or more cooling subsystems (S) comprises: a first cooling circuit for cooling a set of first heating components ; a second cooling circuit for cooling a set of second heating components , wherein the set of second heating components are different from the set of first hearing components ; a third cooling circuit for cooling a set of third heating components , wherein the set of third heating components are different from the set of first heating components and the set of second heating components ; a fourth cooling circuit for cooling a set of fourth heating components , wherein the set of fourth heating components are different from the set of first heating components , the set of second heating components and the set of third heating components ; a pump station unit ; and a heat dissipation unit ; wherein the first cooling circuit and the fourth cooling circuit are connected in parallel to form a first branch, the second cooling circuit and the third cooling circuit are connected in parallel to form a second branch, and the first branch and the second branch are connected in parallel and are connected with the pump station unit and the heat dissipation unit . a first cooling circuit for cooling a set of first heating components ; a second cooling circuit for cooling a set of second heating components , wherein the set of second heating components are different from the set of first hearing components ; a third cooling circuit for cooling a set of third heating components , wherein the set of third heating components are different from the set of first heating components and the set of second heating components ; a fourth cooling circuit for cooling a set of fourth heating components , wherein the set of fourth heating components are different from the set of first heating components , the set of second heating components and the set of third heating components ; a pump station unit ; and a heat dissipation unit ; wherein the first cooling circuit and the fourth cooling circuit are connected in parallel to form a first branch, the second cooling circuit and the third cooling circuit are connected in parallel to form a second branch, and the first branch and the second branch are connected in parallel and are connected with the pump station unit and the heat dissipation unit .
A method to bend a straw comprising the steps of: causing a bending drum , which is provided with at least one seat designed to house the straight straw and with a cavity arranged at the seat and radially more on the inside than the seat , to rotate around a rotation axis ; feeding the straight straw to the seat ; and pushing the straw into the cavity by means of the action of a first bending element , which radially moves relative to the seat for at least partially bending the straw in a "U"-shape against at least one wall of the cavity . causing a bending drum , which is provided with at least one seat designed to house the straight straw and with a cavity arranged at the seat and radially more on the inside than the seat , to rotate around a rotation axis ; feeding the straight straw to the seat ; and pushing the straw into the cavity by means of the action of a first bending element , which radially moves relative to the seat for at least partially bending the straw in a "U"-shape against at least one wall of the cavity .
A wound exudate management system comprising an inline filter , the inline filter comprising: an inlet opening having a connector ; an outlet opening having a connector ; and a cartridge flanked by the inlet and outlet openings , the cartridge comprising a cavity , a one-way check valve , and at least one filter membrane , wherein the filter membrane comprises hydrophobic material and the filter membrane comprises a pore size of at least 0.2 microns; wherein the wound exudate management system further comprises: a pump for generating negative pressure; a wound dressing for covering and protecting a wound; and a first pressure tube having an interior lumen , a second pressure tube having an interior lumen , and a flexible connector , wherein the first pressure tube is disposed between the pump and the inline filter , the second pressure tube is disposed between the inline filter and the flexible connector , and the flexible connector is disposed between the second pressure tube and the wound dressing such that the pump and the wound dressing are in fluid communication via the interior lumen . an inlet opening having a connector ; an outlet opening having a connector ; and a cartridge flanked by the inlet and outlet openings , the cartridge comprising a cavity , a one-way check valve , and at least one filter membrane , wherein the filter membrane comprises hydrophobic material and the filter membrane comprises a pore size of at least 0.2 microns; wherein the wound exudate management system further comprises: a pump for generating negative pressure; a wound dressing for covering and protecting a wound; and a first pressure tube having an interior lumen , a second pressure tube having an interior lumen , and a flexible connector , wherein the first pressure tube is disposed between the pump and the inline filter , the second pressure tube is disposed between the inline filter and the flexible connector , and the flexible connector is disposed between the second pressure tube and the wound dressing such that the pump and the wound dressing are in fluid communication via the interior lumen . a pump for generating negative pressure; a wound dressing for covering and protecting a wound; and a first pressure tube having an interior lumen , a second pressure tube having an interior lumen , and a flexible connector , wherein the first pressure tube is disposed between the pump and the inline filter , the second pressure tube is disposed between the inline filter and the flexible connector , and the flexible connector is disposed between the second pressure tube and the wound dressing such that the pump and the wound dressing are in fluid communication via the interior lumen .
A motorized and mobile work vehicle , equipped with a hydraulic tool holder arm , intended for use in a field of crops such as vines, composed of a straddle chassis on which rolling means are fixed, characterized in that said chassis comprises at least two hydraulic telescopic stabilizers which are independent of one another and are each designed to be deployed horizontally and to come to rest on the ground through pivot means about a horizontal axis and under the action of motor means.
A communication control method using a relay user equipment (100-2) configured to relay communication between a base station (200-1) and a remote user equipment (100-1), the communication control method comprising: receiving, by the remote user equipment (100-1), a Radio Resource Control (RRC) release message from the base station (200-1) via the relay user equipment (100-2); and performing, by the remote user equipment (100-1), a notification operation configured to notify the relay user equipment (100-2) of a content of the RRC release message, wherein the RRC release message is a message releasing or suspending a RRC connection between the remote user equipment (100-1) and the base station (200-1). receiving, by the remote user equipment (100-1), a Radio Resource Control (RRC) release message from the base station (200-1) via the relay user equipment (100-2); and performing, by the remote user equipment (100-1), a notification operation configured to notify the relay user equipment (100-2) of a content of the RRC release message, wherein the RRC release message is a message releasing or suspending a RRC connection between the remote user equipment (100-1) and the base station (200-1).
Rubber compound for the preparation of portions of pneumatic tyres comprising a cross-linking unsaturated chain polymer base, a filler system and a vulcanizing system; said compound being characterized in that said filler system comprises (a) a first carbon black having a surface area less than or equal to 170 m 2 /gr in a quantity greater than or equal to 25 phr; (b) a second carbon black having a surface area greater than or equal to 250 m 2 /gr in a quantity such that the ratio between the quantity of said first carbon black and the quantity of said second carbon black is greater than or equal to 3 and less than or equal to 10; (c) a carbon black dispersing agent in a quantity of less than or equal to 1 phr.
A lithographic ink having all of a viscosity (A) at a rotational speed of 0.5 rpm, a viscosity (B) at a rotational speed of 20 rpm, and a viscosity (C) at a rotational speed of 50 rpm of 5 Pa·s or more and 100 Pa·s or less, the viscosities (A), (B), and (C) being measured by using a cone-plate rotating viscometer at 25°C, and having a viscosity ratio (C)/(B) of 0.8 or more and 1.0 or less, wherein the lithographic ink comprises a resin having a hydrophilic group and the weight average molecular weight of the resin having a hydrophilic group is from 5,000 to 100,000, and a polyfunctional (meth)acrylate having a hydroxyl group, wherein the content of the polyfunctional (meth)acrylate having a hydroxyl group is 30% by mass or more and 70 % by mass or less.