mhurhangee/patent-ind-claim-en huggingface dataset:
Device for shaping at least one piece of dough into at least one dough product, comprising a base for receiving the at least one piece of dough , a mould having at least one chamber with an encircling wall , wherein the wall on a first side of the mould , which side is directed towards the base , defines an opening for receiving a piece of dough in the at least one chamber , and first drive means with which the mould is moved in at least two directions in space or in one direction in space and about an axis of rotation such that the at least one piece of dough is formed into the at least one dough product by movements or by rotation of the mould relative to the base, wherein a punch is arranged within the at least one chamber , the punch having pretensioning means and actuating means in order to exert a defined force on a piece of dough received in the chamber .
An electronic patch for applying to a wearable item , the electronic patch including: a first sensor including a first sensor pad and a first sensor base , the first sensor base disposed under the first sensor pad and extending inwardly therefrom so as to define a stepped arrangement, the first sensor pad adapted to detect a first physiological parameter upon contact with a user's skin; a first electrically conductive underlayer disposed under the first sensor base and electrically coupled thereto; a first circuit layer disposed under the first underlayer and electrically coupled to the first sensor via the first underlayer ; a first elastic layer overlying at least a portion of the first sensor base and arranged so as to be disposed adjacent the first sensor pad and extending therearound; a second elastic layer disposed under the first circuit layer ; and one or more inner adhesive layers disposed under the second elastic layer and configured to adhere to the wearable item ; characterized in that the one or more inner adhesive layers comprises: a first portion comprising a second adhesive agent containing a hot melt adhesive agent, and a second portion comprising a third adhesive agent containing a polyurethane, a polyester and/or a polyamide. a first electrically conductive underlayer disposed under the first sensor base and electrically coupled thereto; a first circuit layer disposed under the first underlayer and electrically coupled to the first sensor via the first underlayer ; a first elastic layer overlying at least a portion of the first sensor base and arranged so as to be disposed adjacent the first sensor pad and extending therearound; a second elastic layer disposed under the first circuit layer ; and one or more inner adhesive layers disposed under the second elastic layer and configured to adhere to the wearable item ; characterized in that the one or more inner adhesive layers comprises: a first portion comprising a second adhesive agent containing a hot melt adhesive agent, and a second portion comprising a third adhesive agent containing a polyurethane, a polyester and/or a polyamide. a first portion comprising a second adhesive agent containing a hot melt adhesive agent, and a second portion comprising a third adhesive agent containing a polyurethane, a polyester and/or a polyamide.
A method for detecting a target substance in a sample, comprising: reacting the sample, a support, a reporter substance, a first trapping substance, and a second trapping substance to form a complex of "support - first trapping substance - target substance - second trapping substance - reporter substance" or a complex of "support - second trapping substance - target substance - first trapping substance - reporter substance", wherein the support has a first binding portion, the reporter substance has a second binding portion, the first trapping substance binds to the target substance and has a first binding partner portion capable of binding to the first binding portion and the second binding portion, and the second trapping substance binds to the target substance and has a second binding partner portion capable of binding to the first binding portion and the second binding portion; and detecting a signal from the reporter substance in the complex, wherein the first trapping substance and the second trapping substance has a target substance recognition portion, which is selected from the group consisting of antibodies, low-molecular weight antibodies, peptides, and aptamers. reacting the sample, a support, a reporter substance, a first trapping substance, and a second trapping substance to form a complex of "support - first trapping substance - target substance - second trapping substance - reporter substance" or a complex of "support - second trapping substance - target substance - first trapping substance - reporter substance", wherein the support has a first binding portion, the reporter substance has a second binding portion, the first trapping substance binds to the target substance and has a first binding partner portion capable of binding to the first binding portion and the second binding portion, and the second trapping substance binds to the target substance and has a second binding partner portion capable of binding to the first binding portion and the second binding portion; and wherein the support has a first binding portion, the reporter substance has a second binding portion, the first trapping substance binds to the target substance and has a first binding partner portion capable of binding to the first binding portion and the second binding portion, and the second trapping substance binds to the target substance and has a second binding partner portion capable of binding to the first binding portion and the second binding portion; and detecting a signal from the reporter substance in the complex, wherein the first trapping substance and the second trapping substance has a target substance recognition portion, which is selected from the group consisting of antibodies, low-molecular weight antibodies, peptides, and aptamers.
A computing device with a microphone system, comprising: an environment microphone configured to pick up an environment microphone signal that includes a desired signal component based on desired sound and a noise component based on noise from a noise source; a noise microphone configured to pick up a noise microphone signal based on the noise from the noise source, where the noise microphone is configured such that contributions to the noise microphone signal from the desired sound, if present, are attenuated relative to such contributions to the environment microphone signal; the computing device being characterised by further comprising: a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output. an environment microphone configured to pick up an environment microphone signal that includes a desired signal component based on desired sound and a noise component based on noise from a noise source; a noise microphone configured to pick up a noise microphone signal based on the noise from the noise source, where the noise microphone is configured such that contributions to the noise microphone signal from the desired sound, if present, are attenuated relative to such contributions to the environment microphone signal; the computing device being characterised by further comprising: a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output. a controller including an adaptive filter configured to receive and process a plurality of time samples of the noise microphone signal to yield a noise estimation of the noise component, the controller being configured to dynamically select an order of the adaptive filter to dynamically update the way in which the adaptive filter processes time samples of the noise microphone signal to yield the noise estimation; and a summer configured to subtract the noise estimation from the environment microphone signal to yield an end-user output.
A monitoring system for a material transfer vehicle, wherein the material transfer vehicle has means for carrying material, and the monitoring system comprises means for monitoring physical stability of the material transfer vehicle, , characterized in that the monitoring system further comprises; - at least one first sensor for weighing the material being carried by the carrying means, - at least one second sensor measuring an angle of a base, boom and/or carrying means of the material transfer vehicle in respect to a horizontal plane or other part of the material transfer vehicle, the second sensor comprising a gyroscope; - processing means providing a weight measurement result of the material on the basis of the information received from the first sensor and compensated using the output of the second sensor, - user interface for providing information on the weight measurement result, , wherein the at least one first sensor, the at least one second sensor, the processing means and the user interface are arranged to handle both the weighing and the stability monitoring. - at least one first sensor for weighing the material being carried by the carrying means, - at least one second sensor measuring an angle of a base, boom and/or carrying means of the material transfer vehicle in respect to a horizontal plane or other part of the material transfer vehicle, the second sensor comprising a gyroscope; - processing means providing a weight measurement result of the material on the basis of the information received from the first sensor and compensated using the output of the second sensor, - user interface for providing information on the weight measurement result, , wherein the at least one first sensor, the at least one second sensor, the processing means and the user interface are arranged to handle both the weighing and the stability monitoring.
A compound of Formula I or a pharmaceutically acceptable salt thereof, wherein: R 1 is H, alkyl, cycloalkyl, aryl, heteroaryl, R 4 CO-, R 5 NHCO-, R 6 OCO-, R 7 SO 2 -, or Fmoc; where R 4 , R 5 , R 6 and R 7 are independently selected from the group consisting of alkyl, cycloalkyl, alkenyl, aryl, heteroaryl, adamantyl, and benzyl, wherein R 4 , R 5 , R 6 and R 7 is optionally substituted with one or more chosen substituents chosen from -OH, -CN, -NH 2 , and halogen; R 2 is alkyl, aryl, heteroaryl, cycloalkyl, or Boc; R 3 is OH, alkoxy, allyloxy , -NR 8 R 9 ; wherein R 8 and R 9 are independently selected from the group consisting of H, alkyl, aryl, and heteroaryl; or R 8 and R 9 are optionally joined to form a N-containing heterocycle with 1-3 heteroatoms; and wherein R 1 and R 2 are not both hydrogen. R 1 is H, alkyl, cycloalkyl, aryl, heteroaryl, R 4 CO-, R 5 NHCO-, R 6 OCO-, R 7 SO 2 -, or Fmoc; where R 4 , R 5 , R 6 and R 7 are independently selected from the group consisting of alkyl, cycloalkyl, alkenyl, aryl, heteroaryl, adamantyl, and benzyl, wherein R 4 , R 5 , R 6 and R 7 is optionally substituted with one or more chosen substituents chosen from -OH, -CN, -NH 2 , and halogen; R 2 is alkyl, aryl, heteroaryl, cycloalkyl, or Boc; R 3 is OH, alkoxy, allyloxy , -NR 8 R 9 ; wherein R 8 and R 9 are independently selected from the group consisting of H, alkyl, aryl, and heteroaryl; or R 8 and R 9 are optionally joined to form a N-containing heterocycle with 1-3 heteroatoms; and wherein R 1 and R 2 are not both hydrogen.
A battery cell package member comprising a plurality of cylinder type battery cells , a battery cell tray , which is a tray configured to accommodate the plurality of cylinder type battery cells in a storage of a first package member , comprising: a first tray member having a plate type structure in which a plurality of first recessed portions surrounding one side end portions of the battery cells are formed; and a second tray member having a plate type structure in which a plurality of second recessed portions surrounding the other side end portions facing the one side end portions of the battery cells are formed, and the first and second tray members comprise a volatile rust inhibitor which is vaporized at room temperature to form a rust-proofing film on surfaces of the battery cells , wherein the battery cell package member further comprises a second package member ; wherein the a first package member accommodates the battery cell tray and the second package member accommodates the first package member in a sealed state to prevent the vaporized rust inhibitor from leaking out of the battery cell tray . a first tray member having a plate type structure in which a plurality of first recessed portions surrounding one side end portions of the battery cells are formed; and a second tray member having a plate type structure in which a plurality of second recessed portions surrounding the other side end portions facing the one side end portions of the battery cells are formed, and the first and second tray members comprise a volatile rust inhibitor which is vaporized at room temperature to form a rust-proofing film on surfaces of the battery cells , wherein the battery cell package member further comprises a second package member ; wherein the a first package member accommodates the battery cell tray and the second package member accommodates the first package member in a sealed state to prevent the vaporized rust inhibitor from leaking out of the battery cell tray .
Smoke-permeable, tubular food casing, which is reinforced by a flat insert, wherein the flat insert is a consolidated nonwoven or spunbonded nonwoven, a woven fabric, loop-formingly knitted fabric, loop-drawingly knitted fabric, laid fabric or a porous film, wherein the flat insert is coated with a film-forming protein, but not regenerated or precipitated cellulose, and the casing, in a longitudinal direction, comprises a smoke-permeable transparent glued seam which is generated from adhesive comprising in the dry state 10 to 100 % by weight of protein, wherein the protein in the adhesive is blood plasma, collagen, gelatin, casein, soy protein, gluten, zein, ardein, pea protein, cottonseed or fish protein, protein from mussels, algae, fungae or other biomaterials from marine creatures or a mixture thereof, wherein the coated flat insert is shaped to form a tubular casing with overlapping longitudinal edges and the overlapping longitudinal edges are furnished with the adhesive and bonded to one another so that the smoke permeability is uniform over the entire periphery of the casing.
Process for preparing chlorosilanes in a fluidized-bed reactor by reaction of a reaction gas containing silicon tetrachloride and hydrogen with a particulate contact composition containing silicon and a catalyst, wherein the chlorosilanes have the general formula H n SiCl 4-n and/or H m Cl 6-m Si 2 where n = 1-4 and m = 0-4 and wherein the hydraulic diameter d hyd of the fluidized-bed reactor, the superficial velocity u L of the gas in the fluidized-bed reactor and the Sauter diameter d 32 of the particulate contact composition are selected so that points are imaged on an area in which the Archimedes number Ar is plotted against the Reynolds number Re in a cartesian coordinate system, wherein the area is defined by the equations 2a and 2b: Ar = 5 ⋅ 10 − 9 ⋅ Re 2 + 4,8 ⋅ 10 − 3 ⋅ Re − 102 Ar = 1 ⋅ 10 − 9 ⋅ Re 2 + 1,1 ⋅ 10 − 2 ⋅ Re − 10774 with a lower limit Ar = 0.3 and an upper limit Ar = 3000, wherein Ar is determined by means of equation 3 Ar = g ⋅ d 32 3 υ F 2 ⋅ ρ P − ρ F ρ F and g is the acceleration due to gravity [m/s 2 ], d 32 is the Sauter diameter of the particles [m], ρ P is the solids density of the particles [kg/m 3 ], ρ F is the fluid density [kg/m 3 ], ν F is the kinematic viscosity of the fluid [m 2 /s], wherein Re is determined by means of equation 4 Re = u L ⋅ d hyd υ F and u L is the superficial velocity of the gas [m/s] and d hyd is the hydraulic diameter [m], wherein d hyd is determined by means of equation 5 d hyd = 4 ∗ A q , free U total , wetted and A q , free corresponds to the free flow cross section [m 2 ] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor, wherein d hyd is 0.1 to 24 m, u L is 0.05 to 0.6 m/s and d 32 is 5 to 500 μm. g is the acceleration due to gravity [m/s 2 ], d 32 is the Sauter diameter of the particles [m], ρ P is the solids density of the particles [kg/m 3 ], ρ F is the fluid density [kg/m 3 ], ν F is the kinematic viscosity of the fluid [m 2 /s], u L is the superficial velocity of the gas [m/s] and d hyd is the hydraulic diameter [m], A q , free corresponds to the free flow cross section [m 2 ] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor,
A powder press adapter having at least one die carrier and having at least one counter yoke displaceable relative to the die carrier , characterized a. by a spacer comprising a cylinder and a piston , which is effective between the die carrier and the counter yoke and which fluidically exerts forces that maintain spacing; and/or b. by a lifting device comprising a cylinder and a piston , which is effective between the die carrier and the counter yoke and which is driven fluidically; wherein (i) the cylinder and/or the piston surround (s) a passage opening in the die carrier or, correspondingly, in the counter yoke , and/or surround(s) a guide rod ; and/or (ii) wherein the spacer or, respectively, the lifting device comprises an assembly within the die carrier and/or the counter yoke ; and/or (iii) wherein the spacer is designed to maintain a spacing in a first of one of its operating states and designed to be flexible in a second of one of its operating states. a. by a spacer comprising a cylinder and a piston , which is effective between the die carrier and the counter yoke and which fluidically exerts forces that maintain spacing; and/or b. by a lifting device comprising a cylinder and a piston , which is effective between the die carrier and the counter yoke and which is driven fluidically; (i) the cylinder and/or the piston surround (s) a passage opening in the die carrier or, correspondingly, in the counter yoke , and/or surround(s) a guide rod ; and/or (ii) wherein the spacer or, respectively, the lifting device comprises an assembly within the die carrier and/or the counter yoke ; and/or (iii) wherein the spacer is designed to maintain a spacing in a first of one of its operating states and designed to be flexible in a second of one of its operating states.
Street lamp which is configured to change a light output depending on the weather, wherein the street lamp has a weather sensor in order to detect rain and/or snow, characterized in that two electrodes are arranged at a smaller distance and a third electrode (C) is arranged at a greater distance from one of the two first-mentioned electrodes (A, B) in the weather sensor on an insulation body , and an electronic circuit of the weather sensor is configured to measure both the resistance or the capacitance between the two more closely spaced electrodes (A, B) and the resistance or the capacitance between the two more widely spaced electrodes (B, C), and in that the street lamp has a control circuit which is configured to change a luminous flux and/or a luminous color of a light output by the street lamp depending on the measured resistance or the measured capacitance. the street lamp has a weather sensor in order to detect rain and/or snow, characterized in that two electrodes are arranged at a smaller distance and a third electrode (C) is arranged at a greater distance from one of the two first-mentioned electrodes (A, B) in the weather sensor on an insulation body , and an electronic circuit of the weather sensor is configured to measure both the resistance or the capacitance between the two more closely spaced electrodes (A, B) and the resistance or the capacitance between the two more widely spaced electrodes (B, C), and in that the street lamp has a control circuit which is configured to change a luminous flux and/or a luminous color of a light output by the street lamp depending on the measured resistance or the measured capacitance.
An optical communication cable bundle comprising: a bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface of the cable bundle , wherein the bundle jacket is an outermost layer of the cable bundle ; and a plurality of optical fiber subunits located within the bundle passage and surrounded by the bundle jacket , each optical fiber subunit comprising: a subunit jacket defining a subunit passage ; and a plurality of optical fibers located with the subunit passage ; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket ; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%. a bundle jacket including an inner surface defining a bundle passage and an outer surface defining an exterior surface of the cable bundle , wherein the bundle jacket is an outermost layer of the cable bundle ; and a plurality of optical fiber subunits located within the bundle passage and surrounded by the bundle jacket , each optical fiber subunit comprising: a subunit jacket defining a subunit passage ; and a plurality of optical fibers located with the subunit passage ; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket ; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%. a subunit jacket defining a subunit passage ; and a plurality of optical fibers located with the subunit passage ; wherein a thickness of the bundle jacket is less than a thickness of each of the subunit jackets and the bundle jacket is extruded tight around the subunit jackets to couple the subunits and the bundle jacket ; and wherein each of the subunit jackets is formed from a first extrudable polymer material that includes a fire resistant material having an oxygen limiting index of greater than 40%, wherein the bundle jacket is formed from a second extrudable polymer material having an oxygen limiting index of less than 40%.