mhurhangee/patent-ind-claim-en huggingface dataset:
Method for carrying out a remote time comparison in pigeon racing using an electronic counting clock with which the arrival times of the racing pigeon returning from a race is recorded in a manipulation-secure manner, wherein the current time of the counting clock is compared with a master time (for example a radio clock or GPS time) and the difference between the time comparison of the time of the counting clock and the comparison time is used to correct the counting clock for the purpose of determining the true arrival time , a1) before the race, the pigeon together with chip ring is registered via a read-and write device at the club, wherein additional information, namely a chip ring ID and a secret number , is recorded and wherein the secret member is generated by the read-and-write device located at the club, a2) and on registration (or on basketing) of the pigeon at the club, the chip ring ID and the secret number are sent in real time to an external, secure server via a secure data connection, b1) on arrival of a pigeon at the breeder, the arrival time and additional information, namely the chip ring ID and the secret number , are used to verify the pigeon, b2) and on detecting the arrival of the pigeon at the breeder via the antenna on the counting clock , the information stored in the chip ring , namely the chip ring ID and the secret number , is sent to the external server via a secure data connection, and this is compared by the server with the data from step a2), b3) and wherein in the case of a valid comparison of the compared data from step a2) and b2), the server generates an acknowledgement at the club. a1) before the race, the pigeon together with chip ring is registered via a read-and write device at the club, wherein additional information, namely a chip ring ID and a secret number , is recorded and wherein the secret member is generated by the read-and-write device located at the club, a2) and on registration (or on basketing) of the pigeon at the club, the chip ring ID and the secret number are sent in real time to an external, secure server via a secure data connection, b1) on arrival of a pigeon at the breeder, the arrival time and additional information, namely the chip ring ID and the secret number , are used to verify the pigeon, b2) and on detecting the arrival of the pigeon at the breeder via the antenna on the counting clock , the information stored in the chip ring , namely the chip ring ID and the secret number , is sent to the external server via a secure data connection, and this is compared by the server with the data from step a2), b3) and wherein in the case of a valid comparison of the compared data from step a2) and b2), the server generates an acknowledgement at the club.
Thermocouple for sensing the temperature at a measurement point , comprising a first conductor that has a first end and a first terminal end , and second conductor that has a second end and a second terminal end , wherein the first end of the first conductor and the second end of the second conductor are in electric contact with one another at the measurement point , and wherein the first terminal end of the first conductor and the second terminal end of the second conductor in each case can be connected to a terminal line , wherein the first conductor and the second conductor are applied to a substrate using thick-film technology, wherein the first end of the first conductor and the second end of the second conductor overlap in at least some sections at the measurement point , characterised in that the first conductor forms a positive contact and is made from an alloy consisting of 80 to 95% Ni, 3 to 20% Cr, 0 to 1% Fe and 0 to 1% Si, that the second conductor forms a negative contact and is made from an alloy consisting of 40 to 58% Cu, 40 to 50% Ni, 1 to 5% Mn and 1 to 5% Fe, that a heating means is applied to the substrate using thick-film technology, and the substrate is made from a thermally conductive material.
Electrical feedthrough assembly comprising a base body , for the attachment to a housing, with at least one opening for at least one conductor embedded in a fixation material that is fed into each of the respective openings and sealing the respective opening , wherein said electrical feedthrough assembly further comprises at least one insulation element affixed to the base body , the insulation element having at least an insulation section for a conductor , the insulation section having an conductor opening through which the respective conductor is fed, the insulation element being configured and arranged such that a cavity is formed between the base body and the insulation section , characterized in that the insulation section further comprises at least one further opening allowing access to the cavity , the cavity being at least partially filled with an adhesive for forming a connection between the base body and the insulation section of the insulation element . said electrical feedthrough assembly further comprises at least one insulation element affixed to the base body , the insulation element having at least an insulation section for a conductor , the insulation section having an conductor opening through which the respective conductor is fed, the insulation element being configured and arranged such that a cavity is formed between the base body and the insulation section , characterized in that the insulation section further comprises at least one further opening allowing access to the cavity , the cavity being at least partially filled with an adhesive for forming a connection between the base body and the insulation section of the insulation element .
A method for the production of coking coal (CH), comprising the steps of: ― jointly pretreating a mixture of a biomass (BM) and a heavy oil (HC1) using a liquid-phase pyrolysis, whereby vapours and a bottom product are formed, ― separating the vapours from the bottom product, and ― coking the bottom product, wherein the heavy oil (HC1) has a kinematic viscosity at 100°C of more than 10 mm 2 /s, preferably of more than 15 mm 2 /s. ― jointly pretreating a mixture of a biomass (BM) and a heavy oil (HC1) using a liquid-phase pyrolysis, whereby vapours and a bottom product are formed, ― separating the vapours from the bottom product, and ― coking the bottom product,
A method of preparing a branched polymer composition, comprising reacting a polyhydroxyalkanoate (PHA) and poly(butylene succinate-co-adipate) (PBSA) with a branching agent, thereby forming a branched polymer composition of PHA and PBSA.
A solar cell comprising: a P-type diffusion region and a plurality of N-type diffusion regions ; a P-type metal contact that is electrically coupled to the P-type diffusion region ; an N-type metal contact that is electrically coupled to the N-type diffusion regions and passes over portions of the P-type diffusion region ; a first dielectric layer comprising contact holes that allows the N-type metal contact to electrically connect to the N-type diffusion regions , the first dielectric layer is configured to electrically insulate the N-type metal contact from the underlying P-type diffusion region ; and characterized by a second dielectric layer between the N-type metal contact and the first dielectric layer and over the P-type diffusion region . a P-type diffusion region and a plurality of N-type diffusion regions ; a P-type metal contact that is electrically coupled to the P-type diffusion region ; an N-type metal contact that is electrically coupled to the N-type diffusion regions and passes over portions of the P-type diffusion region ; a first dielectric layer comprising contact holes that allows the N-type metal contact to electrically connect to the N-type diffusion regions , the first dielectric layer is configured to electrically insulate the N-type metal contact from the underlying P-type diffusion region ; and characterized by a second dielectric layer between the N-type metal contact and the first dielectric layer and over the P-type diffusion region .
Attachment for a device for generating an airflow, preferably a warm airflow, or for dispensing a fluid, which attachment is adapted to be introduced at least in sections into an external ear canal of a human or animal ear, wherein the attachment comprises - a connecting piece for connection to the device , wherein the attachment comprises - a tongue-like guide vane , projecting from the connecting piece , for guiding air flowing out of the device or fluid emitted by the device, having a guide vane base , and wherein the guide vane is arranged downstream of the connecting piece in the direction of flow of the airflow or fluid, wherein the tongue-like guide vane has two guide vane cheeks projecting from the guide vane base , namely a first guide vane cheek and a second guide vane cheek , wherein guide vane base and guide vane cheeks form a guide channel or part of a guide channel for the air flowing out of the device for generating an airflow, characterized in that opposing sections of the guide vane cheeks each have a different height. - a connecting piece for connection to the device , wherein the attachment comprises - a tongue-like guide vane , projecting from the connecting piece , for guiding air flowing out of the device or fluid emitted by the device, having a guide vane base ,
A device for detecting the quality of a liquid (F) in a supply pipe , in particular for detecting the water quality in a water pipe, comprising a flow cell , which comprises an inlet opening , an outlet opening and at least one receiving device for the arrangement of at least one sensor , wherein the inlet opening and the outlet opening are provided on a base surface of the flow cell , which base surface is intended for connection to the supply pipe , an intake pipe is provided, the inlet opening of the flow cell is connected to the intake pipe , the free end of which is intended for arrangement in the supply pipe , and a liquid pump , for pumping a flow (S) branched off from the liquid (F) in the supply pipe through the intake pipe , the inlet opening , the flow cell , and through the outlet opening , is provided and is connected to the intake pipe , and wherein at least one sensor is arranged in the flow cell and is formed by a spectrometer probe, an ion-selective probe, an electrochemical sensor, or an optical sensor, characterised in that said intake pipe being received displaceably in its longitudinal direction (L) in the flow cell or is designed to be adjustable in its length.
A method of presenting media data, the method performed by a processing unit separate from a decoder and that processes the media data before frames of the media data are decoded by the decoder, the method comprising: determining that data for at least a portion of a segment of media data has been lost after a remaining portion of the segment has been received via a network transmission in accordance with dynamic adaptive streaming over HTTP, DASH; based on the determination, prior to the decoder decoding any of the frames of the media data of the segment, adding default data to the segment to replace the data that has been determined to be lost to form a replacement segment, wherein the default data is separately transmitted or pre-stored in relation to the media data of the segment; and outputting media data of the replacement segment to the decoder. determining that data for at least a portion of a segment of media data has been lost after a remaining portion of the segment has been received via a network transmission in accordance with dynamic adaptive streaming over HTTP, DASH; based on the determination, prior to the decoder decoding any of the frames of the media data of the segment, adding default data to the segment to replace the data that has been determined to be lost to form a replacement segment, wherein the default data is separately transmitted or pre-stored in relation to the media data of the segment; and outputting media data of the replacement segment to the decoder.
Insulating glazing at least comprising - a first pane , which has, on an inner-side surface at least partially, a coating as well as two busbars for contacting the coating , - a second pane , - a thermoplastic spacer , which extends peripherally around the first and second pane and which has a polymeric main body, two pane contact surfaces (6.1, 6.2), a glazing interior surface , and an outer surface , wherein the first pane rests directly against a first pane contact surface (6.1) of the spacer and the second pane rests directly against a second pane contact surface (6.2) of the spacer , - an interior , which is enclosed between the first and the second pane , - an outer interpane space adjacent the outer surface , in which an outer seal is inserted, - an electrical connection element for electrically contacting the coating having an outer and an inner end , whose outer end protrudes from the outer seal , wherein the inner end of the connection element and one busbar are electrically connected and are arranged between the spacer and the first pane outside the interior formed peripherally by the spacer . - a first pane , which has, on an inner-side surface at least partially, a coating as well as two busbars for contacting the coating , - a second pane , - a thermoplastic spacer , which extends peripherally around the first and second pane and which has a polymeric main body, two pane contact surfaces (6.1, 6.2), a glazing interior surface , and an outer surface , wherein the first pane rests directly against a first pane contact surface (6.1) of the spacer and the second pane rests directly against a second pane contact surface (6.2) of the spacer , - an interior , which is enclosed between the first and the second pane , - an outer interpane space adjacent the outer surface , in which an outer seal is inserted, - an electrical connection element for electrically contacting the coating having an outer and an inner end , whose outer end protrudes from the outer seal ,
A method for preparing perfume-containing melt bodies, comprising the following steps: i) preparing a melt dispersion comprising at least one water-soluble or water-dispersible molten carrier material having a melting temperature of >30 °C as a continuous phase and at least one solid as a disperse phase in a first container; ii) mixing the melt dispersion from step i) with at least one aesthetic component selected from the group comprising fragrances and dyes outside the first container; and iii) reshaping the mixture obtained in step ii) in order to obtain solid melt bodies. i) preparing a melt dispersion comprising at least one water-soluble or water-dispersible molten carrier material having a melting temperature of >30 °C as a continuous phase and at least one solid as a disperse phase in a first container; ii) mixing the melt dispersion from step i) with at least one aesthetic component selected from the group comprising fragrances and dyes outside the first container; and iii) reshaping the mixture obtained in step ii) in order to obtain solid melt bodies.
Dual tire component servicer for supplying a first tire component and a second tire component, in particular breaker cushions, to a tire building drum, wherein the dual tire component servicer comprises a first conveyor and a second conveyor for conveying the first tire component and the second tire component, respectively, in a supply direction towards the tire building drum, wherein the dual tire component servicer further comprises a first pick-and-place unit and a second pick-and-place unit for transferring the first tire component and the second tire component, respectively, from their respective conveyors to the tire building drum, characterized in that the first pick-and-place unit and the second pick-and-place unit are automatically and independently movable relative to each other in a lateral direction perpendicular to the supply direction.
A compound having the structure of Formula (II), for use in a method for treating stroke or traumatic brain injury in an individual in need thereof: wherein: R' 1 is or L 2 is -NH-C(=O)-, or -C(=O)NH-; X is CR 3 or N; Y is independently selected from CR 9 or N; R 2 is aryl optionally substituted with at least one R 3 ; R 3 is independently selected from H, F, D, Cl, Br, I, -CN, -NO 2 , -OH, -CF 3 , - OCF 3 , -OR 5 , C 1 -C 6 alkyl, C 3 -C 8 cycloalkyl, C 1 -C 6 heteroalkyl, C 1 -C 6 haloalkyl, C 2 -C 8 heterocycloalkyl, optionally substituted aryl, optionally substituted O-aryl, optionally substituted heteroaryl, n is an integer selected from 0-2; R 9 is independently selected from H, D, halogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, - OR 5 , -OCF 3 , C 1 -C 6 carbonylalkyl, or -CF 3 ; or two R 9 attached to the same carbon atom form an oxetane ring; R 10 is selected from halogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, -OR 5 , -OCF 3 , C 1 -C 6 carbonylalkyl, or -CF 3 ; R 5 is independently selected from H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 8 cycloalkyl, phenyl, and benzyl; or a pharmaceutically acceptable salt, or pharmaceutically acceptable solvate thereof. R' 1 is or L 2 is -NH-C(=O)-, or -C(=O)NH-; X is CR 3 or N; Y is independently selected from CR 9 or N; R 2 is aryl optionally substituted with at least one R 3 ; R 3 is independently selected from H, F, D, Cl, Br, I, -CN, -NO 2 , -OH, -CF 3 , - OCF 3 , -OR 5 , C 1 -C 6 alkyl, C 3 -C 8 cycloalkyl, C 1 -C 6 heteroalkyl, C 1 -C 6 haloalkyl, C 2 -C 8 heterocycloalkyl, optionally substituted aryl, optionally substituted O-aryl, optionally substituted heteroaryl, n is an integer selected from 0-2; R 9 is independently selected from H, D, halogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, - OR 5 , -OCF 3 , C 1 -C 6 carbonylalkyl, or -CF 3 ; or two R 9 attached to the same carbon atom form an oxetane ring; R 10 is selected from halogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, -OR 5 , -OCF 3 , C 1 -C 6 carbonylalkyl, or -CF 3 ; R 5 is independently selected from H, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 8 cycloalkyl, phenyl, and benzyl;
A multi-compartment negative air filtration system comprising: a housing comprising a first compartment and a second compartment , the first compartment and the second compartment separated by at least one panel member , each of the first compartment and the second compartment comprising: an inlet and an outlet ; a pre-filter disposed downstream of the inlet ; a HEPA filter disposed downstream of the pre-filter ; and a fan assembly disposed downstream of the HEPA filter , the fan assembly in airflow communication with the pre-filter and the HEPA filter , the fan assembly generating a negative pressure across the pre-filter and the HEPA filter , characterized in that the fan assembly of the first compartment and the fan assembly of the second compartment share a constant torque motor comprising an operating torque. a housing comprising a first compartment and a second compartment , the first compartment and the second compartment separated by at least one panel member , each of the first compartment and the second compartment comprising: an inlet and an outlet ; a pre-filter disposed downstream of the inlet ; a HEPA filter disposed downstream of the pre-filter ; and a fan assembly disposed downstream of the HEPA filter , the fan assembly in airflow communication with the pre-filter and the HEPA filter , the fan assembly generating a negative pressure across the pre-filter and the HEPA filter , an inlet and an outlet ; a pre-filter disposed downstream of the inlet ; a HEPA filter disposed downstream of the pre-filter ; and a fan assembly disposed downstream of the HEPA filter , the fan assembly in airflow communication with the pre-filter and the HEPA filter , the fan assembly generating a negative pressure across the pre-filter and the HEPA filter , characterized in that the fan assembly of the first compartment and the fan assembly of the second compartment share a constant torque motor comprising an operating torque.
An antireflection coating formed of a transparent first layer applied on a substrate of low refractive index (n substrate ) and a transparent second layer over the first layer , wherein thickness (d 1 ) of the first layer ranges from 10 to 70 nm and refractive index (n 1 ) of said first layer satisfies the relation 1.05<n 1 <1.35 within the wavelength range of 375 to 1000 nm, and wherein thickness (d 2 ) of the second layer ranges from 30 to 100 nm and refractive index (n 2 ) of said second layer satisfies the relation 1.25<n 2 <1.5 within the wavelength range of 375 to 1000 nm, and wherein n 1 <n 2 .
A method of forming a semiconductor heterostructure, the method comprising: (a) providing a substrate having a surface and comprising a first semiconductor material; (b) providing a lattice-mismatched layer over at least a portion of the substrate, the lattice-mismatched layer comprising a second semiconductor material; (c) providing a dislocation-blocking mask over the substrate, the mask comprising a dielectric material and having a rectangular trenches extending to a surface of the lattice-mismatched layer and each trench defined by at least one sidewall at least a portion of which meets the surface of the lattice-mismatched layer at an orientation angle to a selected crystallographic direction of the first semiconductor material, the trenches having a predetermined width W smaller than a length L thereof and the sidewall of the trenches having a height at least equal to a predetermined distance H from the surface of the lattice-mismatched layer; and (d) depositing in the trenches a regrowth layer comprising a third semiconductor material, the third semiconductor material and the second semiconductor material comprising the same semiconductor material, the orientation angle causing threading dislocations in the regrowth layer to terminate at the sidewall and to decrease in density with increasing distance from the surface of the lattice-mismatched layer, wherein regrowth layers from the trenches merge on top of the dislocation blocking mask , wherein the third semiconductor material is compositionally graded and the threading dislocations terminate at the sidewall of the trenches in the dislocation-blocking mask at or below the predetermined distance H from the surface of the lattice-mismatched layer. (a) providing a substrate having a surface and comprising a first semiconductor material; (b) providing a lattice-mismatched layer over at least a portion of the substrate, the lattice-mismatched layer comprising a second semiconductor material; (c) providing a dislocation-blocking mask over the substrate, the mask comprising a dielectric material and having a rectangular trenches extending to a surface of the lattice-mismatched layer and each trench defined by at least one sidewall at least a portion of which meets the surface of the lattice-mismatched layer at an orientation angle to a selected crystallographic direction of the first semiconductor material, the trenches having a predetermined width W smaller than a length L thereof and the sidewall of the trenches having a height at least equal to a predetermined distance H from the surface of the lattice-mismatched layer; and (d) depositing in the trenches a regrowth layer comprising a third semiconductor material, the third semiconductor material and the second semiconductor material comprising the same semiconductor material, the orientation angle causing threading dislocations in the regrowth layer to terminate at the sidewall and to decrease in density with increasing distance from the surface of the lattice-mismatched layer, wherein regrowth layers from the trenches merge on top of the dislocation blocking mask ,
An electrolytic solution for an electrochemical device including a negative electrode including a magnesium-based material, wherein a 2,2,6,6-tetramethylpiperidine-1-oxyl free radical or one of substances having the following structural formulas is added ; and wherein the electrolytic solution comprises a sulfone and a magnesium salt dissolved in the sulfone.