mhurhangee/patent-ind-claim-en huggingface dataset:
Trailed tank for the spraying of plant protection and fertilizing products, comprising: - a base frame ; - movement means , associated with said base frame and adapted to move said base frame on the ground; - a reservoir associated with said base frame and defining a first volume for containing a liquid ; - a mixing assembly associated with said base frame and housed in a second volume , said mixing assembly being adapted to mix said liquid with at least one plant protection and/or fertilizing product to obtain a product to be sprinkled ; - a spraying assembly of said product to be sprinkled which is associated with said base frame ; - a hydraulic circuit , fluid-dynamically connected to said reservoir , to said mixing assembly and to said spraying assembly ; characterized by the fact that it comprises an opening/closing element of said second volume , said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly , and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface . - a base frame ; - movement means , associated with said base frame and adapted to move said base frame on the ground; - a reservoir associated with said base frame and defining a first volume for containing a liquid ; - a mixing assembly associated with said base frame and housed in a second volume , said mixing assembly being adapted to mix said liquid with at least one plant protection and/or fertilizing product to obtain a product to be sprinkled ; - a spraying assembly of said product to be sprinkled which is associated with said base frame ; - a hydraulic circuit , fluid-dynamically connected to said reservoir , to said mixing assembly and to said spraying assembly ; characterized by the fact that it comprises an opening/closing element of said second volume , said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly , and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface . characterized by the fact that it comprises an opening/closing element of said second volume , said opening/closing element being movable between an opening configuration, wherein said second volume is open for the access to said mixing assembly , and a closing configuration, wherein said second volume is closed; wherein said reservoir and said opening/closing element in said closure configuration define an overall upper surface of substantially convex conformation; and wherein said second volume extends upwards from said base frame to said overall upper surface .
An inductive power transfer pad , in particular a transfer pad of a system for inductive power transfer to a vehicle , comprising a stationary part and a movable part , wherein the movable part comprises a primary winding structure for generating a magnetic or electromagnetic field while an electric current flows through windings of the primary winding structure , wherein the inductive power transfer pad comprises at least one actuator (14; 44) for actuating motion of the movable part , wherein the movable part is movable at least into a first direction by the at least one actuator (14; 44) so as to move between a retracted state and an extended state, wherein the inductive power transfer pad comprises a heating for heating the inductive power transfer pad , characterized in that the heating is an additional heating other than operating devices , which are electric and/or electronic devices adapted to operate the primary winding structure so that the primary winding structure generates the magnetic or electromagnetic field, and the inductive power transfer pad is adapted to operate the heating while the movable part is in the retracted state and the primary winding structure is not operated. wherein the inductive power transfer pad comprises a heating for heating the inductive power transfer pad , characterized in that the heating is an additional heating other than operating devices , which are electric and/or electronic devices adapted to operate the primary winding structure so that the primary winding structure generates the magnetic or electromagnetic field, and the inductive power transfer pad is adapted to operate the heating while the movable part is in the retracted state and the primary winding structure is not operated.
Fire-fighting device with - at least one generator arranged for discharging fire-fighting agent, - an electrically triggerable ignition means arranged in the generator , - wherein the ignition means has an at least two-pole control connection, and wherein the ignition means is tripped by an ignition current above a threshold and activates the generator , - a bypass circuit electrically arranged at poles of the control connection, and - an electronic switch , characterized in that - the bypass circuit monitors an ohmic resistance across the ignition means and closes the switch depending on the resistance across the ignition means and the switch short-circuits the poles of the control connection or connects them with low resistance such that in the event of igniting the ignition means by the ignition current the switch bypasses the ignition means such that the ignition current still flows between the poles of the control connection, and - the bypass circuit is connected to the control connection electrically in parallel. - at least one generator arranged for discharging fire-fighting agent, - an electrically triggerable ignition means arranged in the generator , - wherein the ignition means has an at least two-pole control connection, and wherein the ignition means is tripped by an ignition current above a threshold and activates the generator , - a bypass circuit electrically arranged at poles of the control connection, and - an electronic switch , characterized in that - the bypass circuit monitors an ohmic resistance across the ignition means and closes the switch depending on the resistance across the ignition means and the switch short-circuits the poles of the control connection or connects them with low resistance such that in the event of igniting the ignition means by the ignition current the switch bypasses the ignition means such that the ignition current still flows between the poles of the control connection, and - the bypass circuit is connected to the control connection electrically in parallel.
Hand-held power tool , in particular hammer drill and/or chipping hammer, having a machine housing and having a handle device, wherein the hand-held power tool has an operating-mode switching device and a drive device for driving an application tool in different operating modes, wherein the handle device has at least one spring element and a handle unit which is attached to the machine housing so as to be movable at least to a limited extent and is at least partially vibrationally decoupled with respect to the machine housing via the at least one spring element , and at least one secondary spring element , characterized by an intermediate plate that receives the spring element on one side, is provided in the machine housing and serves to receive or acts as a stop for the at least one secondary spring element .
An in vitro method for the prediction, prognosis and/or diagnosis of a peripheral inflammatory response associated with a condition or disease in a subject, wherein said condition or disease is schizophrenia or a co-morbidity thereof selected from the group consisting of mood disorders, autism, Alzheimer' disease, , dementia, Parkinson's disease, multiple sclerosis, diabetes, metabolic syndrome, asthma, ulcerative colitis, psoriasis and other autoimmune conditions, heart disease and cancer, the method comprising determining in a biological sample of a subject the level of vitamin D3 and at least one biomarker selected from innate chemokine IL-8 and matrix metalloproteinase MMP-9 and comparing the levels of said vitamin D3 and the at least one biomarker to a control level of vitamin D3 and a control level of the biomarker in order to determine a positive or negative prediction, prognosis and/or diagnosis of said peripheral inflammatory response associated with a disease or condition, wherein the level of vitamin D3 indicative of a positive inflammatory status in the sample is equal to or less than 75nmol/L, the level of IL-8 indicative of a positive inflammatory status is at least 20 pg/ml and/or the level of MMP-9 indicative of a positive inflammatory status is at least 700 ng/ml .
Method for nucleation in the freeze-drying of products in a product chamber , the product chamber being connected to a condenser via a valve , comprising the following steps to be carried out one after the other in a time sequence: a) lowering the pressure in the product chamber and the condenser at a temperature lying below the freezing point of the product until a defined pressure is reached, lying below atmospheric pressure and above a product-specific nucleation pressure at which nucleation commences; b) closing the valve between the product chamber and the condenser ; c) maintaining the pressure in the product chamber and further lowering the pressure in the condenser ; d) opening the valve between the product chamber and the condenser after or upon reaching the product-specific nucleation pressure in the condenser such that the pressure in the product chamber is lowered to a pressure below the product-specific nucleation pressure. a) lowering the pressure in the product chamber and the condenser at a temperature lying below the freezing point of the product until a defined pressure is reached, lying below atmospheric pressure and above a product-specific nucleation pressure at which nucleation commences; b) closing the valve between the product chamber and the condenser ; c) maintaining the pressure in the product chamber and further lowering the pressure in the condenser ; d) opening the valve between the product chamber and the condenser after or upon reaching the product-specific nucleation pressure in the condenser such that the pressure in the product chamber is lowered to a pressure below the product-specific nucleation pressure.
A transverse magnetic wave, TM, mode filter , comprising: a filter body , comprising a filter cavity and a cover , and having hollow confined space; a dielectric , located in the hollow confined space; and a transition layer , configured to connect the dielectric and the filter body , wherein a coefficient of thermal expansion, CTE, of the transition layer is between a CTE of the filter body and a CTE of the dielectric ; a second step-shaped protrusion structure disposed at the bottom of the filter cavity ; the transition layer comprises a bottom transition sublayer and a top transition sublayer , the bottom transition sublayer is configured to connect the dielectric and the second step-shaped protrusion structure , and the top transition sublayer is configured to connect the dielectric and the cover ; wherein an outer diameter of the bottom transition sublayer is less than the outer diameter of the dielectric , the second step-shaped protrusion structure further comprises a third protrusion and a fourth protrusion , the third protrusion is in contact with the bottom of the filter cavity through the fourth protrusion , and a height of the fourth protrusion is greater than or equal to 1/3 of a height of an inner side wall of the cavity. a filter body , comprising a filter cavity and a cover , and having hollow confined space; a dielectric , located in the hollow confined space; and a transition layer , configured to connect the dielectric and the filter body , wherein a coefficient of thermal expansion, CTE, of the transition layer is between a CTE of the filter body and a CTE of the dielectric ; a second step-shaped protrusion structure disposed at the bottom of the filter cavity ; the transition layer comprises a bottom transition sublayer and a top transition sublayer , the bottom transition sublayer is configured to connect the dielectric and the second step-shaped protrusion structure , and the top transition sublayer is configured to connect the dielectric and the cover ; wherein an outer diameter of the bottom transition sublayer is less than the outer diameter of the dielectric , the second step-shaped protrusion structure further comprises a third protrusion and a fourth protrusion , the third protrusion is in contact with the bottom of the filter cavity through the fourth protrusion , and a height of the fourth protrusion is greater than or equal to 1/3 of a height of an inner side wall of the cavity.
A method for compensating for alien crosstalk at one or more of a plurality of wire pairs (1-2/3-6/4-5/7-8) in a telecommunications jack , the method comprising: positioning a crosstalk compensation arrangement relating to crosstalk across at least a first wire pair (1-2/3-6/4-5) and a second wire pair (3-6/4-5/7-8) on a circuit board within a telecommunications jack , the crosstalk compensation arrangement including a plurality of symmetric zones of crosstalk compensation (Z A1 /Z A2 /Z A3 /Z B1 /Z B2 /Z B3 /Z C1 /Z C2 /Z D1 /Z E1 ) between a first wire pair (1-2/3-6/4-5) and a second wire pair (3-6/4-5/7-8); and altering the crosstalk compensation arrangement in at least one of the plurality of zones of crosstalk compensation (Z A1 /Z A2 /Z A3 /Z B1 /Z B2 /Z B3 /Z C1 /Z C2 /Z D1 /Z E1 ) nearest to contact springs (CS 1 -CS 8 ) of the first wire pair (1-2/3-6/4-5) and the second wire pair (3-6/4-5/7-8) to provide an asymmetric capacitive coupling (C1-C14) between the first wire pair (1-2/3-6/4-5) and the second wire pair (3-6/4-5/7-8) to reduce alien crosstalk at one of the first and second wire pairs (1-2/3-6/4-5/7-8). positioning a crosstalk compensation arrangement relating to crosstalk across at least a first wire pair (1-2/3-6/4-5) and a second wire pair (3-6/4-5/7-8) on a circuit board within a telecommunications jack , the crosstalk compensation arrangement including a plurality of symmetric zones of crosstalk compensation (Z A1 /Z A2 /Z A3 /Z B1 /Z B2 /Z B3 /Z C1 /Z C2 /Z D1 /Z E1 ) between a first wire pair (1-2/3-6/4-5) and a second wire pair (3-6/4-5/7-8); and altering the crosstalk compensation arrangement in at least one of the plurality of zones of crosstalk compensation (Z A1 /Z A2 /Z A3 /Z B1 /Z B2 /Z B3 /Z C1 /Z C2 /Z D1 /Z E1 ) nearest to contact springs (CS 1 -CS 8 ) of the first wire pair (1-2/3-6/4-5) and the second wire pair (3-6/4-5/7-8) to provide an asymmetric capacitive coupling (C1-C14) between the first wire pair (1-2/3-6/4-5) and the second wire pair (3-6/4-5/7-8) to reduce alien crosstalk at one of the first and second wire pairs (1-2/3-6/4-5/7-8).
An effervescent composition, in particular for remediation of aqueous solutions, characterized in that it contains - a zero-valent iron micro- or nanoparticle-based material selected from zero-valent iron nanoparticles, zero-valent iron microparticles, zero-valent iron nanoparticle composites, zero-valent iron microparticle composites, bimetallic and/or chemically modified zero-valent iron nanoparticles, bimetallic and/or chemically modified zero-valent iron microparticles, and mixtures thereof, - alkali metal bicarbonate or carbonate, and - an acid capable of providing a fizzy effect together with the alkali metal bicarbonate or carbonate, said acid being in a solid form, preferably in a powder form, wherein the weight ratio of alkali metal bicarbonate or carbonate to the acid is lower than 5:1 and at least 1:10, and wherein the weight ratio of the acid to zero-valent iron nano- or microparticles is higher than 0.1:1. - a zero-valent iron micro- or nanoparticle-based material selected from zero-valent iron nanoparticles, zero-valent iron microparticles, zero-valent iron nanoparticle composites, zero-valent iron microparticle composites, bimetallic and/or chemically modified zero-valent iron nanoparticles, bimetallic and/or chemically modified zero-valent iron microparticles, and mixtures thereof, - alkali metal bicarbonate or carbonate, and - an acid capable of providing a fizzy effect together with the alkali metal bicarbonate or carbonate, said acid being in a solid form, preferably in a powder form, wherein the weight ratio of alkali metal bicarbonate or carbonate to the acid is lower than 5:1 and at least 1:10, and wherein the weight ratio of the acid to zero-valent iron nano- or microparticles is higher than 0.1:1.
Wind protection for a precision scale , which surrounds a weighing chamber , with at least one side panel , and a suspension guide for the side panel, wherein the suspension guide has a guide rail and a mounting device for the side panel displaceably mounted in the guide rail , wherein the mounting device has a receptacle for the side panel and at least one guide element , which engages in the guide rail and is displaceably mounted in it, wherein the side panel is held with an upper edge in the mounting device of the suspension guide , characterized in that the guide element is arranged offset to the inside outside of a plane (E) with respect to the weighing chamber , said plane being defined by the receptacle of the side panel , and that the mounting device is pivotably mounted in the guide rail about a contact line between guide element and guide rail , wherein the plane (E) of the side panel is arranged offset to the outside to the guide rail with respect to the weighing chamber .
A method of operating a gas turbine power plant with a first gas turbine group , including a first turbine assembly , and a second gas turbine group , including a compressor assembly and a second turbine assembly which are mechanically coupled to one another, and useful work is extracted by a device being included in the plant, wherein a flue gas stream is produced by a combustion device , which is placed in a gas flow stream upstream of the second turbine assembly , wherein said second turbine assembly and compressor assembly are balanced to each other such that at least essentially all work produced by the second turbine assembly is consumed by the compressor assembly , and wherein the first turbine assembly is balanced to the device for the extraction of useful work such that at least essentially all work produced by the first turbine assembly is consumed by the device for the extraction of useful work , wherein - process steam is heated from a process gas stream downstream of the first turbine assembly , - at least a part of water contents in flue gases is used as process steam, and - the produced steam is injected into a gas flow stream upstream of and/or in the combustion device in such amounts that at least 80% of the oxygen contents of the air in the gas flow stream is consumed through combustion, characterised in that the gas flow stream from the second turbine assembly exits between the second turbine assembly and the compressor assembly of the second gas turbine group , wherein the gas flow stream from the second turbine assembly is led without essential angular deviation to an axial inlet to the first turbine assembly by a central axis (B) of the first turbine assembly forming an angle (α) with a central axis (A) of the second turbine assembly , and wherein the angle (α) is between 30° and 90°. - process steam is heated from a process gas stream downstream of the first turbine assembly , - at least a part of water contents in flue gases is used as process steam, and - the produced steam is injected into a gas flow stream upstream of and/or in the combustion device in such amounts that at least 80% of the oxygen contents of the air in the gas flow stream is consumed through combustion, characterised in that the gas flow stream from the second turbine assembly exits between the second turbine assembly and the compressor assembly of the second gas turbine group , wherein the gas flow stream from the second turbine assembly is led without essential angular deviation to an axial inlet to the first turbine assembly by a central axis (B) of the first turbine assembly forming an angle (α) with a central axis (A) of the second turbine assembly , and wherein the angle (α) is between 30° and 90°.
Battery pack for a handheld power tool , having a battery pack housing comprising at least a first housing component and a second housing component , at least two cylindrical battery cells , wherein the battery pack has at least one cell holder , wherein the cell holder receives at least two battery cells which are connected to each other in a parallel circuit and/or in a series circuit; wherein each of the battery cells has two end faces which are perpendicular to a longitudinal axis (x); a battery pack electronics system with contact elements for establishing an electrical connection between the battery pack and the handheld power tool , the cell holder has sleeve-like insulating walls which correspond to the battery cells at least in some regions, wherein the insulating walls are designed in such a way that electrical contact between the battery cells is prevented, characterized in that the cell holder exhibits elastic material expansion, wherein the cell holder has a cell opening for receiving a battery cell for each battery cell , wherein the insulating walls are arranged between the cell openings , and a diameter D1 of the cell openings before the battery cells are received in the cell openings is between 97% and 99%, in particular between 97.5% and 98.5%, of a diameter D2 of the corresponding battery cells . a battery pack housing comprising at least a first housing component and a second housing component , at least two cylindrical battery cells , wherein the battery pack has at least one cell holder , wherein the cell holder receives at least two battery cells which are connected to each other in a parallel circuit and/or in a series circuit; wherein each of the battery cells has two end faces which are perpendicular to a longitudinal axis (x); a battery pack electronics system with contact elements for establishing an electrical connection between the battery pack and the handheld power tool , the cell holder has sleeve-like insulating walls which correspond to the battery cells at least in some regions, wherein the insulating walls are designed in such a way that electrical contact between the battery cells is prevented, characterized in that the cell holder exhibits elastic material expansion, wherein the cell holder has a cell opening for receiving a battery cell for each battery cell , wherein the insulating walls are arranged between the cell openings , and a diameter D1 of the cell openings before the battery cells are received in the cell openings is between 97% and 99%, in particular between 97.5% and 98.5%, of a diameter D2 of the corresponding battery cells .