mhurhangee/ep-ind-claims huggingface dataset:
Compressed air supply system for a commercial vehicle, having - an air dryer unit with a filter unit, with an electrically selectable valve unit (18, 18') and with a pneumatically selectable discharge valve unit (20, 20'), - a compressor with a coupling, which compressor supplies compressed air to the air dryer unit via a feed line, - a multi-circuit protective valve unit which draws compressed air from the air dryer unit, and - an electrically selectable compressor coupling switching valve unit, wherein an electronic control unit is provided which controls functions of the air dryer unit and of the compressor coupling switching valve unit, characterised in that a further electrically selectable valve unit is provided, and in that a feed line shut-off valve unit is provided which can be pneumatically selected by the further electrically selectable valve unit, and in that the discharge valve unit (20, 20') is pneumatically selectable by the further electrically selectable valve unit, so that the feed line shut-off valve unit is always closed if the discharge valve unit (20, 20') is open and a feed line volume loss is avoided. - an air dryer unit with a filter unit, with an electrically selectable valve unit (18, 18') and with a pneumatically selectable discharge valve unit (20, 20'), - a compressor with a coupling, which compressor supplies compressed air to the air dryer unit via a feed line, - a multi-circuit protective valve unit which draws compressed air from the air dryer unit, and - an electrically selectable compressor coupling switching valve unit,
An aqueous dispersion comprising: a microcapsule that includes a shell having a three-dimensional cross-linked structure containing at least one bond selected from a urethane bond or a urea bond, and includes a core, in which at least one of the shell or the core has a polymerizable group; a dispersant in which at least one bond selected from a urethane bond or a urea bond, and an anionic group are contained, a weight-average molecular weight is 5000 or more, and an anionic group value, which is the number of millimoles of the anionic group contained in 1 g of the dispersant, is from 0.10 mmol/g to 2.50 mmol/g; and water. a microcapsule that includes a shell having a three-dimensional cross-linked structure containing at least one bond selected from a urethane bond or a urea bond, and includes a core, in which at least one of the shell or the core has a polymerizable group; a dispersant in which at least one bond selected from a urethane bond or a urea bond, and an anionic group are contained, a weight-average molecular weight is 5000 or more, and an anionic group value, which is the number of millimoles of the anionic group contained in 1 g of the dispersant, is from 0.10 mmol/g to 2.50 mmol/g; and water.
A driving control method of an objective lens, provided in a fluorescence microscope, to correct an optical-axis chromatic aberration caused by the object lens and driven by a piezoelectric actuator, the method comprises: a first step of applying a pulse voltage to the piezoelectric actuator for a predetermined time so as to move the objective lens near a focal position of an observation target, the pulse voltage being larger than a displacement voltage needed to move the objective lens to the focal position; and a second step of applying the displacement voltage to the piezoelectric actuator after the first step to stabilize the objective lens, thereby realizing high-speed driving and stabilizing of the objective lens. a first step of applying a pulse voltage to the piezoelectric actuator for a predetermined time so as to move the objective lens near a focal position of an observation target, the pulse voltage being larger than a displacement voltage needed to move the objective lens to the focal position; and a second step of applying the displacement voltage to the piezoelectric actuator after the first step to stabilize the objective lens,
A body comprising: a first phase comprising silicon carbide; a second phase comprising a metal oxide, wherein the second phase is a discrete intergranular phase located at the grain boundaries of the first phase; wherein a majority of the second phase within the body is located at triple boundary regions between three or more grains of the first phase; wherein the first phase has an average grain size of not greater than 2 μm (microns), as determined by the intercept method using scanning electron microscope photomicrographs, as described in the description, wherein the first phase has a maximum grain size of not greater than 10 μm (microns), using the same technique used to measure average grain size, but the value is based on the largest line segment length measured, wherein the body comprises a second phase count index of at least 1000/100 μm (microns) of image width, based on a SEM image having a total width of 100 microns, and wherein the body comprises an average flexural strength of at least 700 MPa determined according to the four point bend test using configuration B of ASTM C1161-02C. a first phase comprising silicon carbide; a second phase comprising a metal oxide, wherein the second phase is a discrete intergranular phase located at the grain boundaries of the first phase; wherein a majority of the second phase within the body is located at triple boundary regions between three or more grains of the first phase; wherein the first phase has an average grain size of not greater than 2 μm (microns), as determined by the intercept method using scanning electron microscope photomicrographs, as described in the description, wherein the first phase has a maximum grain size of not greater than 10 μm (microns), using the same technique used to measure average grain size, but the value is based on the largest line segment length measured, wherein the body comprises a second phase count index of at least 1000/100 μm (microns) of image width, based on a SEM image having a total width of 100 microns, and wherein the body comprises an average flexural strength of at least 700 MPa determined according to the four point bend test using configuration B of ASTM C1161-02C.
A composition suitable for preventing and/or treating an E. coli-based infection in an animal wherein said composition comprises a Bacillus -based direct-fed microbial component comprising Bacillus subtilis strain 3BP5 (NRRL B-50510); Bacillus amyloliquefaciens strains 918 (NRRL B-50508), and 15AP4 (PTA-6507) either alone or in combination with a culture supernatant derived from these strains.
A method of terminating, in a RAKE receiver for demodulating received signals modulated according to a CDMA method, wherein in the demodulation, coefficients or elements of a vector w are calculated by an iterative method as a solution to a system of linear equations represented by the matrix equation Rw = h, where R is a matrix of known elements and h is a known vector, the values of the coefficients or elements of the vector w being used by demodulating circuits in the receiving equipment to produce demodulated signals, the iterative method including successive iteration steps, the successive iteration steps, the method characterized in that for each of the successive iteration steps a value of the signal to interference plus noise ratio SINR for the received signals, after having been demodulated using the values of the coefficients or elements of the vector w calculated in the respective iteration step, is calculated (309, 317; 409, 421), wherein this calculated value or a quantity derived therefrom is used in a stopping condition or in a stopping algorithm for terminating the iterations.
An apparatus for measuring a variation in thickness of an electrode of a secondary battery, the apparatus comprising: a piezoelectric element insertable into a case by passing through an observation hole defined in the case, in which an electrode assembly is accommodable, and having an inner end supportable by the electrode assembly; a support member installable outside the case to support an outer end of the piezoelectric element; a blocking layer disposable between the electrode assembly and the piezoelectric element; and a sealing member configured to seal a gap between the blocking layer and the case; wherein the inner end of the piezoelectric element is supportable by the electrode assembly in a state of coming into contact with the blocking layer; the blocking layer has a transparent portion; and a hole communicating with the transparent portion is defined in the piezoelectric element and the support member. a piezoelectric element insertable into a case by passing through an observation hole defined in the case, in which an electrode assembly is accommodable, and having an inner end supportable by the electrode assembly; a support member installable outside the case to support an outer end of the piezoelectric element; a blocking layer disposable between the electrode assembly and the piezoelectric element; and a sealing member configured to seal a gap between the blocking layer and the case; wherein the inner end of the piezoelectric element is supportable by the electrode assembly in a state of coming into contact with the blocking layer; the blocking layer has a transparent portion; and a hole communicating with the transparent portion is defined in the piezoelectric element and the support member.
A secondary battery structure comprising: a substrate having a first surface and a second surface, wherein the second surface is opposite to the first surface; a first electrode structure comprising a plurality of first electrode elements spaced apart from each other, wherein the plurality of first electrode elements comprises a plurality of microelectrodes, which collectively defines a microelectrode array; a second electrode structure spaced apart from the first electrode structure when viewed from a plan view in a thickness direction of the substrate and comprising a second electrode element, wherein the plurality of first electrode elements and second electrode element are arranged on the first surface of the substrate; an electrolyte which allows ions to move between the first electrode structure and second electrode structure, wherein the plurality of first electrode elements is electrochemically and parallelly connected to the second electrode element via the electrolyte member; wherein the first electrode structure and the second electrode structure define a cathode and an anode, the number of the first electrode elements and the number of the second electrode element are different from each other, the electrolyte includes an electrolyte member; and the plurality of first electrode elements further comprises a plurality of first active material elements disposed on the plurality of microelectrodes, each of the active material elements having a particle structure defined by a single particle. a substrate having a first surface and a second surface, wherein the second surface is opposite to the first surface; a first electrode structure comprising a plurality of first electrode elements spaced apart from each other, wherein the plurality of first electrode elements comprises a plurality of microelectrodes, which collectively defines a microelectrode array; a second electrode structure spaced apart from the first electrode structure when viewed from a plan view in a thickness direction of the substrate and comprising a second electrode element, wherein the plurality of first electrode elements and second electrode element are arranged on the first surface of the substrate; an electrolyte which allows ions to move between the first electrode structure and second electrode structure, wherein the plurality of first electrode elements is electrochemically and parallelly connected to the second electrode element via the electrolyte member; wherein the first electrode structure and the second electrode structure define a cathode and an anode, the number of the first electrode elements and the number of the second electrode element are different from each other, the electrolyte includes an electrolyte member; and the plurality of first electrode elements further comprises a plurality of first active material elements disposed on the plurality of microelectrodes, each of the active material elements having a particle structure defined by a single particle.
Use of the nano-fibrillar cellulose suspension obtained by a process wherein (a) cellulose fibres are provided in the form of a suspension having a solids content of from 0.2 to 35 wt-%; (b) at least one filler and/or pigment are provided; (c) the cellulose fibres and the at least one filler and/or pigment are combined, wherein the weight ratio of fibres to filler and/or pigment on a dry weight basis is from 1:10 to 10:1; (d) the combined material of step (c) comprising the cellulose fibres in the presence and the at least one filler and/or pigment is fibrillated until the fibres are at least partially broken down to primary fibrils and the Schopper-Riegler degree is increased by at least 4 °SR, wherein the filler and/or pigment particles have a weight median particle size of from 0.5 to 15 μm, in applications such as in material composites, plastics, paints, rubber, concrete, ceramics, adhesives, food, or in wound-healing applications. (a) cellulose fibres are provided in the form of a suspension having a solids content of from 0.2 to 35 wt-%; (b) at least one filler and/or pigment are provided; (c) the cellulose fibres and the at least one filler and/or pigment are combined, wherein the weight ratio of fibres to filler and/or pigment on a dry weight basis is from 1:10 to 10:1; (d) the combined material of step (c) comprising the cellulose fibres in the presence and the at least one filler and/or pigment is fibrillated until the fibres are at least partially broken down to primary fibrils and the Schopper-Riegler degree is increased by at least 4 °SR,
A battery pack that is mounted to a laptop computer, wherein two or more battery cells that can be charged and discharged are housed in a pack case; the battery cells are cylindrical battery cells having a circular vertical cross-section; the pack case is configured with a lower case in which battery cells are received and an upper case that is coupled to the lower case in order to close and seal the battery cells; in the upper case, a thickness of an upper contact point portion (311, 312) that contacts an upper end external circumferential surface of the battery cells is 70% or less of that of the remaining portions of the upper case, and a first sheet is attached to an outer surface of the upper case corresponding to the upper contact point portion (311, 312); and in the lower case, a thickness of a lower contact point portion (321, 322) that contacts a lower end external circumferential surface of the battery cells is 70% or less of that of the remaining portions of the lower case, and a second sheet is attached to an outer surface of the lower case corresponding to the lower contact point portion (321, 322), wherein in the lower case, the lower contact point portion (321, 322) is opened such that a peak of the lower end external circumferential surface of battery cells is exposed. wherein two or more battery cells that can be charged and discharged are housed in a pack case; the battery cells are cylindrical battery cells having a circular vertical cross-section; the pack case is configured with a lower case in which battery cells are received and an upper case that is coupled to the lower case in order to close and seal the battery cells; in the upper case, a thickness of an upper contact point portion (311, 312) that contacts an upper end external circumferential surface of the battery cells is 70% or less of that of the remaining portions of the upper case, and a first sheet is attached to an outer surface of the upper case corresponding to the upper contact point portion (311, 312); and in the lower case, a thickness of a lower contact point portion (321, 322) that contacts a lower end external circumferential surface of the battery cells is 70% or less of that of the remaining portions of the lower case, and a second sheet is attached to an outer surface of the lower case corresponding to the lower contact point portion (321, 322), wherein in the lower case, the lower contact point portion (321, 322) is opened such that a peak of the lower end external circumferential surface of battery cells is exposed.
Frame for a cooling module of a vehicle engine, in particular a motor vehicle engine, said frame comprising a support structure and at least one flap that is able to obscure all or part of an opening of the structure, the support structure and the flap being configured so as to originate in a single moulding operation while allowing the flap to rotate about an axis of rotation between a closed position and an open position, the frame being characterized in that the support structure comprises flap articulation means, said flap comprising an obturator portion and two extensions (14a, 14b) that each extend laterally from the obturator portion of the flap into said flap articulation means, the flap articulation means being integral with the support structure and the extensions (14a, 14b) being integral with the obturator portion.
An antenna device, comprising: a first conductor pattern comprising a plurality of first antenna components, the first conductor pattern formed on a first substrate; a second conductor pattern comprising a plurality of second antenna components, the second conductor pattern formed on a second substrate; a plurality of conductor lines connecting each of the first antenna components of the first conductor pattern and each of the second antenna components of the second conductor pattern, wherein the first conductor pattern and the second conductor pattern are spaced apart from each other; and a third substrate including an attachment region and a ground region, wherein both end points of each of the plurality of second antenna components of the second substrate are attached to the attachment region, wherein a number of the second antenna components are directly connected to each other on the third substrate, and wherein a communication frequency of the antenna device is controllable by adjusting the number of the second antenna components that are directly connected to each other on the third substrate. a first conductor pattern comprising a plurality of first antenna components, the first conductor pattern formed on a first substrate; a second conductor pattern comprising a plurality of second antenna components, the second conductor pattern formed on a second substrate; a plurality of conductor lines connecting each of the first antenna components of the first conductor pattern and each of the second antenna components of the second conductor pattern, wherein the first conductor pattern and the second conductor pattern are spaced apart from each other; and a third substrate including an attachment region and a ground region, wherein both end points of each of the plurality of second antenna components of the second substrate are attached to the attachment region, wherein a number of the second antenna components are directly connected to each other on the third substrate, and wherein a communication frequency of the antenna device is controllable by adjusting the number of the second antenna components that are directly connected to each other on the third substrate.
A sub-application development method, characterized by the method comprising: displaying an interface of a sub-application developer tool, the sub-application developer tool being obtained by performing an extension corresponding to development processing for a sub-application of a second parent application based on a native sub-application developer tool of a first parent application, the second parent application being different from the first parent application, wherein a sub-application is an application program that is implemented in an environment provided by a parent application, and the parent application is an application program that is directly run on an operating system; receiving a development trigger instruction for the sub-application of the second parent application via the interface; obtaining, in response to the development trigger instruction, a sub-application base library of the second parent application via the sub-application developer tool; creating a sub-application running environment of the second parent application by loading the sub-application base library; and performing development processing for the sub-application of the second parent application in the sub-application running environment. displaying an interface of a sub-application developer tool, the sub-application developer tool being obtained by performing an extension corresponding to development processing for a sub-application of a second parent application based on a native sub-application developer tool of a first parent application, the second parent application being different from the first parent application, wherein a sub-application is an application program that is implemented in an environment provided by a parent application, and the parent application is an application program that is directly run on an operating system; receiving a development trigger instruction for the sub-application of the second parent application via the interface; obtaining, in response to the development trigger instruction, a sub-application base library of the second parent application via the sub-application developer tool; creating a sub-application running environment of the second parent application by loading the sub-application base library; and performing development processing for the sub-application of the second parent application in the sub-application running environment.