mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic device, comprising: a disc-shaped body having a center region, a radius, an outer edge and a central axis, the disc-shaped body being configured for rotating about the central axis and further comprising: a fluid inlet port positioned in the center region of the disc-shaped body; a plurality of flow channels , each flow channel having a flow axis, a plurality of sample compartments in fluidic communication with the flow channel and offset from the flow axis, and an outermost region, wherein the outermost region of the flow channel is the region of the flow channel that is farthest from the center region, and wherein each flow channel is in fluidic communication with the fluid inlet port , and wherein the plurality of flow channels are arranged in parallel and/or are positioned in a radial fashion on the disc-shaped body; a fluid outlet port suitable to let excess liquid escape and in fluidic communication with each flow channel , wherein the distance from the center region to the fluid outlet port is smaller than the distance from the center region to the outermost region of the flow channels ; and wherein the centre region is defined by a circle having a radius, and the ratio of the radius of the circle defining the centre region to the radius of the disk-shaped body is from 0.1:1 to 0.8:1; and a common fluid reservoir, wherein the common fluid reservoir is in fluidic communication with the outermost region of each of the flow channels and wherein the common fluid reservoir is in fluidic communication with the fluid outlet port . a fluid inlet port positioned in the center region of the disc-shaped body; a plurality of flow channels , each flow channel having a flow axis, a plurality of sample compartments in fluidic communication with the flow channel and offset from the flow axis, and an outermost region, wherein the outermost region of the flow channel is the region of the flow channel that is farthest from the center region, and wherein each flow channel is in fluidic communication with the fluid inlet port , and wherein the plurality of flow channels are arranged in parallel and/or are positioned in a radial fashion on the disc-shaped body; a fluid outlet port suitable to let excess liquid escape and in fluidic communication with each flow channel , wherein the distance from the center region to the fluid outlet port is smaller than the distance from the center region to the outermost region of the flow channels ; and wherein the centre region is defined by a circle having a radius, and the ratio of the radius of the circle defining the centre region to the radius of the disk-shaped body is from 0.1:1 to 0.8:1; and a common fluid reservoir, wherein the common fluid reservoir is in fluidic communication with the outermost region of each of the flow channels and wherein the common fluid reservoir is in fluidic communication with the fluid outlet port .
Moisture curable silylated adhesive composition comprising, based on the total weight of said composition : - from 20 % to 50 % weight of at least one silane modified amorphous poly-α-olefin (or APAO) (A) ; - from 2 % to 15 % weight of at least one filler (B) consisting of expanded hollow thermoplastic polymer microspheres ; and - from 10 % to 60 % weight of at least one tackifying agent (C). - from 20 % to 50 % weight of at least one silane modified amorphous poly-α-olefin (or APAO) (A) ; - from 2 % to 15 % weight of at least one filler (B) consisting of expanded hollow thermoplastic polymer microspheres ; and - from 10 % to 60 % weight of at least one tackifying agent (C).
Tunnel lining for covering a tunnel region , which is at the front in a vehicle longitudinal direction (L), of an exhaust tunnel of an underbody of a motor vehicle for flow control of the motor vehicle , having a front lining region which is at the front in the vehicle longitudinal direction (L) and also a rear lining region which is at the rear in the vehicle longitudinal direction (L), and having a bottom wall which faces the underbody in the installed state and also at least two side walls which are arranged on the bottom wall , wherein a central duct is delimited by the side walls and the bottom wall , wherein a first duct cross section of the central duct in the front lining region is configured to be smaller than a second duct cross section of the central duct in the rear lining region of the tunnel lining , characterized in that the bottom wall has a trapezoidal or substantially trapezoidal base area with two legs and two parallel base sides , wherein the side walls are arranged on the legs, and wherein a first angle (α) between a front base side , which is arranged in the front lining region , and a first leg is greater than a second angle (β) between the front base side and a second leg .
A method for making fused meteorite characterized by comprising: placing pieces of meteorite in a mold, said mold having a flat bottom surface; heating a metal having a melting temperature to a temperature at or above said melting temperature for a period of time sufficient to melt said metal producing molten metal; pouring said molten metal into said mold comprising said pieces of meteorite to produce a raw fused material ("RFM"), wherein said RFM is a combination of said metal and said meteorite; cold pressing said RFM into a sheet having a thickness; heating said sheet to a temperature at or above said melting temperature for a period of time sufficient to melt said metal, but below the melting point of said pieces of meteorite, to produce fused meteorite; and cold pressing said fused meteorite. placing pieces of meteorite in a mold, said mold having a flat bottom surface; heating a metal having a melting temperature to a temperature at or above said melting temperature for a period of time sufficient to melt said metal producing molten metal; pouring said molten metal into said mold comprising said pieces of meteorite to produce a raw fused material ("RFM"), wherein said RFM is a combination of said metal and said meteorite; cold pressing said RFM into a sheet having a thickness; heating said sheet to a temperature at or above said melting temperature for a period of time sufficient to melt said metal, but below the melting point of said pieces of meteorite, to produce fused meteorite; and cold pressing said fused meteorite.
A machine for producing bags, including a station for forming a tubular body for forming into a tubular body a band of flexible material transversely perforated at intervals, a holding station for retaining the tubular body , a folding station for forming a bottom at the end of the tubular body , the folding station including a drum and a folding roller mounted to rotate about axes parallel to one another, the folding roller including a folding blade for folding a flap at the end of the tubular body in co-operation with a clamp at the periphery of the drum so as to form the bottom , the folding station including tear-off means comprising a tear-off bar for clamping the tubular body against the drum , the folding station and the holding station being configured jointly to exert traction on the tubular body when the perforations are between the two stations and to detach a portion of the tubular body , the machine being characterized in that the tear-off bar is arranged to separate the tubular body portion when the bottom of said tubular body portion has already been formed, the machine including control means for controlling the rotation of the drum in order to synchronize it with the front of the tubular body .
A decorative sheet including a primer layer, a concealing layer, a primary film layer, a pattern printing layer, an adhesive layer, a transparent resin layer, and a top coat layer laminated in this order from the side of a substrate to which the decorative sheet is suitable to be attached, wherein the transparent resin layer is formed by adding, to a transparent olefin-based resin, nucleating agent vesicles that are vesicles having a single layer outer membrane and containing a nucleating agent, and the transparent resin layer has a Martens hardness of 40 N/mm 2 or higher, measured by the method described in the description, and wherein 50% by weight or more and 100% by weight or less of the transparent olefin-based resin is composed of a highly crystalline homopolypropylene resin, and the highly crystalline homopolypropylene resin has an isotactic pentad fraction (mmmm fraction) of 95% or higher.
Modular fume cupboard , in particular for laboratory regions, comprising a housing that surrounds a space and has side walls and a top wall, wherein at least one of the side walls comprises a window slide , wherein the walls comprise profile elements , between which plate elements are detachably arranged, wherein at least one of the profile elements is configured as a multi-part profile arrangement in order to form a channel which serves for receiving operating elements of the fume cupboard , and wherein at least one side wall is configured such that a further fume cupboard can be arranged thereon in such a way that a space surrounded by the two fume cupboards results.
A mould for applying to a collar of a rail which is to be repaired by aluminothermic welding, the rail including a head , a web and a foot , the mould comprising: at least two pieces temporarily assembled opposite one another and on either side of the rail to enclose the head and the web , the pieces providing a channel for flowing liquid steel into an area to be welded , characterized in that each piece includes: protruding portions for attaching to the web and the underside of the head , and a collar receiving area for receiving the collar , the protruding portions defining and limiting the collar receiving area therein. protruding portions for attaching to the web and the underside of the head , and a collar receiving area for receiving the collar , the protruding portions defining and limiting the collar receiving area therein.
An apparatus for tuning tremor suppression, the apparatus comprising: a garment configured to be worn on an anatomical region of a patient and including an array of electrodes disposed on an inside the garment and contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation (VNS) or Direct Brain Stimulation (DBS); during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time. a garment configured to be worn on an anatomical region of a patient and including an array of electrodes disposed on an inside the garment and contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation (VNS) or Direct Brain Stimulation (DBS); during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time. receive measurements from the array of electrodes disposed on the inside of the garment of baseline tremors in the anatomical region prior to the application of an electrical stimulation to the patient by Vagus Nerve Stimulation (VNS) or Direct Brain Stimulation (DBS); during or after the application of the electrical stimulation by VNS or DBS, receive measurements from the array of electrodes disposed on the inside of the garment of modified tremors in the anatomical region as function of time; and provide tremor suppression feedback to the VNS or DBS based on the measurements of the baseline tremors and the measurements of the modified tremors as a function of time.
A time delay and integration, TDI, scanner comprising: a dynamically programmable focal plane array including a two-dimensional array of detectors arranged in a plurality of columns and a plurality of rows, the array of detectors being divided into a plurality of banks separated from one another by gap regions , each bank including a plurality of sub-banks , and each sub-bank including at least one row of detectors ; a read-out integrated circuit, ROIC, coupled to the focal plane array, the ROIC being configured to combine in a TDI process outputs from detectors in each column of detectors in each sub-bank to provide, for each sub-bank , a plurality of column output values; and a controller configured to program the focal plane array to selectively and dynamically set characteristics of the focal plane array, the characteristics including a size and a location within the two-dimensional array of each of the plurality of sub-banks , the size corresponding to a number of rows of detectors included in the respective sub-bank , and locations of the gap regions within the two-dimensional array, wherein detectors within the two-dimensional array corresponding to the gap regions are inactive in the TDI process and are shunted to ground. a dynamically programmable focal plane array including a two-dimensional array of detectors arranged in a plurality of columns and a plurality of rows, the array of detectors being divided into a plurality of banks separated from one another by gap regions , each bank including a plurality of sub-banks , and each sub-bank including at least one row of detectors ; a read-out integrated circuit, ROIC, coupled to the focal plane array, the ROIC being configured to combine in a TDI process outputs from detectors in each column of detectors in each sub-bank to provide, for each sub-bank , a plurality of column output values; and a controller configured to program the focal plane array to selectively and dynamically set characteristics of the focal plane array, the characteristics including a size and a location within the two-dimensional array of each of the plurality of sub-banks , the size corresponding to a number of rows of detectors included in the respective sub-bank , and locations of the gap regions within the two-dimensional array, wherein detectors within the two-dimensional array corresponding to the gap regions are inactive in the TDI process and are shunted to ground.
Rechargeable lithium battery cell having a housing, a positive electrode, a negative electrode, and an electrolyte which is based on SO 2 and contains a conducting salt, wherein at least one of the electrodes has an active material and is an insertion electrode suitable for receiving lithium ions, which insertion electrode contains a current collector element made of metal which is in contact with the active material of the electrode and wherein the active material is present in a form suitable for receiving lithium ions and has been subjected to covering-layer-reducing pre-treatment.
A method for treating produced water, comprising the steps of: a) mixing (A) nitrogen and produced water and feeding the mixture to a forward osmosis unit (B) containing a semi-permeable membrane (B1); b) feeding carbon dioxide gas to the forward osmosis unit (B), therein creating a pressurized nitrogen side and a pressurized carbon dioxide side of the forward osmosis unit (B); c) recovering concentrated produced water from the pressurized nitrogen side of the forward osmosis unit (B), with said concentrated produced water being fed to a concentrator (E) for separating the nitrogen gas dissolved in said concentrated produced water from said concentrated produced water, and with said concentrated produced water from the concentrator (E) then being fed to a crystallizer; d) recovering fresh water from the pressurized carbon dioxide side of the forward osmosis unit (B); and e) feeding the fresh water recovered from the pressurized carbon dioxide side of the forward osmosis unit (B) and carbon dioxide gas recovered from the pressurized carbon dioxide side of the forward osmosis unit (B) to a separation device (C), in particular comprising a gravity separator , in which separation device (C) the fresh water is further separated from the carbon dioxide gas and recovered, in particular for reuse or as potable water. a) mixing (A) nitrogen and produced water and feeding the mixture to a forward osmosis unit (B) containing a semi-permeable membrane (B1); b) feeding carbon dioxide gas to the forward osmosis unit (B), therein creating a pressurized nitrogen side and a pressurized carbon dioxide side of the forward osmosis unit (B); c) recovering concentrated produced water from the pressurized nitrogen side of the forward osmosis unit (B), with said concentrated produced water being fed to a concentrator (E) for separating the nitrogen gas dissolved in said concentrated produced water from said concentrated produced water, and with said concentrated produced water from the concentrator (E) then being fed to a crystallizer; d) recovering fresh water from the pressurized carbon dioxide side of the forward osmosis unit (B); and e) feeding the fresh water recovered from the pressurized carbon dioxide side of the forward osmosis unit (B) and carbon dioxide gas recovered from the pressurized carbon dioxide side of the forward osmosis unit (B) to a separation device (C), in particular comprising a gravity separator , in which separation device (C) the fresh water is further separated from the carbon dioxide gas and recovered, in particular for reuse or as potable water.
A power transmission device (GM1) in which a motor (M1) and a reduction gear (G1) are connected through a fluid coupling (F1), comprising: a fan for reduction gear cooling provided at an input shaft of the reduction gear (Gl); a fan hood configured to cover the fan ; and a protective cover configured to cover the fluid coupling (F1), characterized in that the protective cover includes a partition plate configured to partition a fan-side space (P1) which includes the fan and a coupling-side space (P2) which includes the fluid coupling, and a first air intake which opens to the fan-side space (P1), and in that the partition plate is disposed at a position separated in an axial direction from the fan hood and includes a through hole for the passage of an input shaft of the reduction gear (G1) or an output shaft of the fluid coupling (F1). a fan for reduction gear cooling provided at an input shaft of the reduction gear (Gl); a fan hood configured to cover the fan ; and a protective cover configured to cover the fluid coupling (F1), characterized in that the protective cover includes a partition plate configured to partition a fan-side space (P1) which includes the fan and a coupling-side space (P2) which includes the fluid coupling, and a first air intake which opens to the fan-side space (P1), and in that the partition plate is disposed at a position separated in an axial direction from the fan hood and includes a through hole for the passage of an input shaft of the reduction gear (G1) or an output shaft of the fluid coupling (F1).
A dairy product, comprising: a milk-derived raw material containing casein; and a protein having caseinolytic activity consisting of an amino acid sequence having 90% or more identity to the amino acid sequence represented by SEQ ID NO: 1.
A non-pneumatic tire comprising: an attachment body to be attached to an axle; a ring member including an inner cylinder externally covering the attachment body and an outer cylinder surrounding the inner cylinder from a tire radial outer side; a plurality of connecting members arranged along a tire circumferential direction between the inner cylinder and the outer cylinder and connecting the inner cylinder and the outer cylinder to each other; and a tread member made of vulcanized rubber and located on the tire radial outer side of the outer cylinder of the ring member ; wherein the ring member and the connecting members form a framework member and are made of a resin material; the non-pneumatic tire being characterised in that the resin material is made of a resin composition including 60 mass% or more of a polyamide resin formed by polymerizing an aliphatic diamine having 6 to 20 carbon atoms and an aliphatic dicarboxylic acid having 10 to 20 carbon atoms. an attachment body to be attached to an axle; a ring member including an inner cylinder externally covering the attachment body and an outer cylinder surrounding the inner cylinder from a tire radial outer side; a plurality of connecting members arranged along a tire circumferential direction between the inner cylinder and the outer cylinder and connecting the inner cylinder and the outer cylinder to each other; and a tread member made of vulcanized rubber and located on the tire radial outer side of the outer cylinder of the ring member ; wherein the ring member and the connecting members form a framework member and are made of a resin material; the non-pneumatic tire being characterised in that the resin material is made of a resin composition including 60 mass% or more of a polyamide resin formed by polymerizing an aliphatic diamine having 6 to 20 carbon atoms and an aliphatic dicarboxylic acid having 10 to 20 carbon atoms.
Sulfur-crosslinkable rubber mixture, especially for the tread of commercial vehicle tyres, comprising at least the following constituents: - 5 to 95 phr (parts by weight, based on 100 parts by weight of all rubbers in the mixture) of natural rubber, - up to 95 phr of at least one further diene rubber and - 30 to 150 phr of at least one carbon black which has a DBP number according to ASTM D 2414 of 140 to 220 ml/100 g and an iodine adsorption number according to the ASTM D 1510 of more than 110 g/kg. - 5 to 95 phr (parts by weight, based on 100 parts by weight of all rubbers in the mixture) of natural rubber, - up to 95 phr of at least one further diene rubber and - 30 to 150 phr of at least one carbon black which has a DBP number according to ASTM D 2414 of 140 to 220 ml/100 g and an iodine adsorption number according to the ASTM D 1510 of more than 110 g/kg.